PCCET Paloalto Networks Palo Alto Networks Certified Cybersecurity Entry-level Technician Free Practice Exam Questions (2025 Updated)

The IP stack adds source (sender) and destination (receiver) IP addresses to the TCP segment (which now is called an IP packet) and notifies the server operating system that it has an outgoing message ready to be sent across the network.

 A static route is a manually configured route that specifies the destination network and the next hop IP address or interface to reach it. A static route does not depend on any routing protocol and remains in the routing table until it is removed or overridden. Static routes are useful for defining default routes, reaching stub networks, or providing backup routes in case of link failures. To configure a static route in a virtual router on a Palo Alto Networks firewall, you need to specify the name, destination, interface, and next hop IP address or virtual router of the route. References: Configure a Static Route in Virtual Routers, Palo Alto Networks Certified Cybersecurity Entry-level Technician (PCCET), FREE Cybersecurity Education Courses

The basic DNS record types are as follows:

● A (IPv4) or AAAA (IPv6) (Address): Maps a domain or subdomain to an IP address or

multiple IP addresses

● CNAME (Canonical Name): Maps a domain or subdomain to another hostname

● MX (Mail Exchanger): Specifies the hostname or hostnames of email servers for a domain

● PTR (Pointer): Points to a CNAME; commonly used for reverse DNS lookups that map an

IP address to a host in a domain or subdomain

● SOA (Start of Authority): Specifies authoritative information about a DNS zone such as

primary name server, email address of the domain administrator, and domain serial

number

● NS (Name Server): The NS record specifies aan authoritative name server for a given host.

● TXT (Text): Stores text-based information

SOAR tools ingest aggregated alerts from detection sources (such as SIEMs, network security tools, and mailboxes) before executing automatable, process-driven playbooks to enrich and respond to these alerts.

 If an endpoint does not know how to reach its destination, it will send data to the specified default gateway. A default gateway is a device that routes traffic from a local network to other networks or the internet. The endpoint will use the default gateway’s IP address as the next hop for packets that are destined for unknown or remote networks. The default gateway will then forward the packets to the appropriate destination or another gateway, based on its routing table. References:

Fundamentals of Network Security, Module 2: Networking Concepts, Lesson 2: IP Addressing and Routing1

PCCET Study Guide, Section 2.2: Describe IP Addressing and Routing2

Personally identifiable information (PII) is any data that can be used to identify someone. All information that directly or indirectly links to a person is considered PII1. Among PII, some pieces of information are more sensitive than others. Sensitive PII is sensitive information that directly identifies an individual and could cause significant harm if leaked or stolen2. Birthplace and name are examples of sensitive PII, as they can be used to distinguish or trace an individual’s identity, either alone or when combined with other information3. Login 10 and profession are not considered sensitive PII, as they are not unique to a person and do not reveal their identity. Login 10 is a non-sensitive PII that is easily accessible from public sources, while profession is not a PII at all, as it does not link to a specific individual4. References:

1: What is PII (personally identifiable information)? - Cloudflare

2: What is Personally Identifiable Information (PII)? | IBM

3: personally identifiable information - Glossary | CSRC

4: What Is Personally Identifiable Information (PII)? Types and Examples

SOAR tools ingest aggregated alerts from detection sources (such as SIEMs, network security tools, and mailboxes) before executing automatable, process-driven playbooks to enrich and respond to these alerts.

https://www.paloaltonetworks.com/cortex/security-operations-automation

 A routed protocol is a protocol by which data can be routed. It provides appropriate addressing information in its internet layer or network layer to allow a packet to be forwarded from one network to another network. Examples of routed protocols are the Internet Protocol (IP) and Internetwork Packet Exchange (IPX). IP is the most widely used routed protocol on the Internet and other networks. It assigns a unique logical address to each device and enables data to be fragmented, reassembled, and routed across multiple networks. References:

Routing v/s Routed Protocols in Computer Network

Routing protocol - Wikipedia

CCNA Certification: Routed Protocols vs Routing Protocols

What is the difference between Routing Protocols and Routed Protocols

Elastic scalability is the feature of the VM-Series firewalls that allows them to fully integrate into the DevOps workflows and CI/CD pipelines without slowing the pace of business. Elastic scalability means that the VM-Series firewalls can automatically adjust their capacity and performance based on the changing demand and workload of the applications they protect. This enables the VM-Series firewalls to provide consistent and optimal security across multiple cloud environments, while also reducing operational costs and complexity. Elastic scalability also allows the VM-Series firewalls to seamlessly integrate with automation and orchestration tools, such as Terraform, Ansible, and AWS CloudFormation, that are commonly used in DevOps processes. This way, the VM-Series firewalls can be deployed and managed as part of the application development lifecycle and CI/CD pipelines, ensuring that security is always aligned with the business needs and objectives. References: VM-Series Virtual Next-Generation Firewall - Palo Alto Networks, Securing Multi-Cloud Environments with VM-Series Virtual Firewalls, Terraform Modules for Palo Alto Networks VM-Series on AWS.

Local systems can eliminate vulnerabilities by patching systems and software effectively and continuously. Patching is the process of applying updates or fixes to software or hardware components that have known vulnerabilities or bugs. Patching can prevent attackers from exploiting these vulnerabilities and compromising the security or functionality of the systems. Patching should be done regularly and promptly, as new vulnerabilities are constantly discovered and exploited by cybercriminals. Patching should also be done effectively, meaning that the patches are tested and verified before deployment, and that they do not introduce new vulnerabilities or issues. Patching should also be done continuously, meaning that the systems are monitored for new vulnerabilities and patches are applied as soon as they are available. Continuous patching can reduce the window of opportunity for attackers to exploit unpatched vulnerabilities and cause damage or data breaches. References:

•1: What is Patch Management? | Palo Alto Networks

•2: Patch Management Best Practices: How to Keep Your Systems Secure | Snyk

•3: Vulnerability Remediation Process - 4 Steps to Remediation | Snyk

The URL Filtering service complements App-ID by enabling you to configure the next-generation firewall to identify and control access to websites and to protect your organization from websites that host malware and phishing pages.

Simplicity: Because each device is centrally managed, with routing based on application policies, WAN managers can create and update security rules in real time as network requirements change. Also, when SD-WAN is combined with zero-touch provisioning, a feature that helps automate the deployment and configuration processes, organizations can further reduce the complexity, resources, and operating expenses required to spin up new sites. ● Improved performance: By allowing efficient access to cloud-based resources without the need to backhaul traffic to centralized locations, organizations can provide a better user experience.

According to the NIST definition, cloud computing is a model for enabling ubiquitous, convenient, on-demand network access to a shared pool of configurable computing resources (e.g., networks, servers, storage, applications, and services) that can be rapidly provisioned and released with minimal management effort or service provider interaction1. One of the essential characteristics of cloud computing is on-demand self-service, which means that users can request and obtain computing resources as needed, without requiring human intervention from the service provider2. On-demand network services are an example of this characteristic, as they allow users to access network resources such as bandwidth, routing, firewall, or load balancing, on demand and in a scalable manner3. References:

The NIST definition of cloud computing

SP 800-145, The NIST Definition of Cloud Computing | CSRC

On-Demand Network Services - Palo Alto Networks

A CI/CD platform is a comprehensive set of tools that help developers, engineers, and DevOps practitioners package and deliver software to the end users. A CI/CD platform automates the process of software testing and deployment, and enables faster and more reliable software releases. Jenkins is a popular open source CI/CD platform that supports a wide range of plugins and integrations to build, test, and deploy various types of applications. Jenkins can be configured to run on different platforms, such as Linux, Windows, or Docker, and can work with various version control systems, such as Git, SVN, or Mercurial. Jenkins can also orchestrate complex workflows, such as parallel or sequential execution, conditional branching, or parameterized triggering, using a graphical interface or a declarative syntax. Jenkins can help developers and DevOps teams achieve continuous integration and continuous delivery/deployment, by providing features such as:

•Pipeline as code: Jenkins allows users to define and manage their pipelines as code, using a domain-specific language (DSL) called Jenkinsfile. This enables users to store, version, and reuse their pipeline configurations, and to apply best practices such as code review and testing.

•Distributed builds: Jenkins can scale up or down to meet the demand of concurrent builds, by distributing the workload across multiple agents or nodes. This improves the performance and efficiency of the CI/CD process, and allows users to leverage different environments and resources for different stages of the pipeline.

•Plugin ecosystem: Jenkins has a rich and active community that contributes to its plugin ecosystem, which extends its functionality and compatibility with various tools and technologies. Users can find and install plugins from the Jenkins Plugin Manager, or create their own custom plugins using Java or Groovy.

•Blue Ocean: Jenkins offers a modern and user-friendly web interface called Blue Ocean, which simplifies the creation and visualization of pipelines. Blue Ocean provides features such as real-time feedback, interactive editing, branch and pull request support, and integration with popular chat platforms, such as Slack or Microsoft Teams.

References:

•Palo Alto Networks Certified Cybersecurity Entry-level Technician (PCCET) - Palo Alto Networks

•What Is a CI/CD Platform and Why Should I Care? | Harness

•What is CI/CD? - Red Hat

•Jenkins Documentation

Examples of serverless environments include Amazon Lambda and Azure Functions. Many PaaS offerings, such as Pivotal Cloud Foundry, also are effectively serverless even if they have not historically been marketed as such. Although serverless may appear to lack the container-specific, cloud native attribute, containers are extensively used in the underlying implementations, even if those implementations are not exposed to end users directly.

MITRE is a not-for-profit organization that operates research and development centers sponsored by the federal government. MITRE maintains the Common Vulnerabilities and Exposures (CVE) catalog, which is a dictionary of common names for publicly known cybersecurity vulnerabilities. CVE’s common identifiers, called CVE Identifiers, make it easier to share data across separate network security databases and tools, and provide a baseline for evaluating the coverage of an organization’s security tools12. References:

Common Vulnerabilities and Exposures (CVE®)

CVE - CVE

Local organization security policies are the rules and guidelines that define how a SaaS application can be used by the employees, contractors, and partners of an organization. These policies cover aspects such as authentication, authorization, data access, data protection, data sharing, and compliance. Local organization security policies aim to ensure that the SaaS application is used in a secure, ethical, and legal manner, and that the organization’s data and assets are not compromised or misused123. References:

Securing SaaS tools for your organisation - GOV.UK

SaaS Security: A Complete Best Practices Guide - BetterCloud

Security policy document examples for B2B SaaS apps

Automation in SOAR (Security Orchestration, Automation, and Response) is the process of programming tasks, alerts, and responses to security incidents so that they can be executed without human intervention. Automation in SOAR helps security teams to handle the huge amount of information generated by various security tools, analyze it through machine learning processes, and take appropriate actions based on predefined rules and workflows. Automation in SOAR also reduces the manual effort and time required for security operations, improves the accuracy and efficiency of threat detection and response, and provides consistency in handling security issues across different environments and scenarios. References: What is SOAR (security orchestration, automation and response)? | IBM, What Is SOAR? Technology and Solutions | Microsoft Security, Security orchestration - Wikipedia.

Security Operations (SecOps) is the process of coordinating and aligning security teams and IT teams to improve the security posture of an organization. SecOps involves implementing and maintaining security controls, technologies, policies, and procedures to protect the organization from cyber threats and incidents. When dealing with a known attack, SecOps must take the following action: document, monitor, and track the incident. This action is important because it helps SecOps to:

•Record the details of the attack, such as the source, target, impact, timeline, and response actions.

•Monitor the status and progress of the incident response and recovery efforts, as well as the ongoing threat activity and indicators of compromise.

•Track the performance and effectiveness of the security controls and technologies, as well as the lessons learned and improvement opportunities. References:

•Palo Alto Networks Certified Cybersecurity Entry-level Technician (PCCET)

•6 Incident Response Steps to Take After a Security Event - Exabeam

•Dealing with Cyber Attacks–Steps You Need to Know | NIST