Performing CyberOps Using Core Security Technologies (CBRCOR) Course Overview

Performing CyberOps Using Core Security Technologies (CBRCOR) Course Overview

The Performing CyberOps Using Core Security Technologies (CBRCOR) course is aimed at equipping learners with expertise in cyber operations, emphasizing security technologies and core practices. Through this course, participants dive deep into the fundamentals of cybersecurity playbooks, tools, and scenarios across different modules, including the application of incident response workflows, analysis of cyber risk, and Compliance with industry standards like 350 201. Additionally, the course covers techniques for Data analytics, System hardening, and network security, as well as processes for Threat modeling, malware analysis, and Vulnerability management. Automation is also a key focus, where learners are introduced to Scripting, API usage, and Orchestration platforms. By completing the CBRCOR course, individuals will acquire the skills necessary to handle real-world cyber threats effectively and efficiently, enhancing their capabilities in cyber operations roles.

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Course Prerequisites

To ensure that you can successfully undertake training in the Performing CyberOps Using Core Security Technologies (CBRCOR) course, the following are the minimum required prerequisites:


  • Basic understanding of cybersecurity concepts and their importance in the modern digital landscape.
  • Familiarity with various types of cyber threats, vulnerabilities, and risks that organizations face.
  • Knowledge of network fundamentals, including common networking devices and services, and how they contribute to security operations.
  • Experience with common operating systems (e.g., Windows, Linux) and their basic security features.
  • Awareness of key security compliance standards (e.g., PCI DSS, GDPR, ISO 27001) that affect organizational security postures.
  • An understanding of the principles of risk management and the components of an effective incident response plan.
  • Basic proficiency with scripting or programming languages (e.g., Python, Bash) to understand automation in cybersecurity operations.
  • Familiarity with command-line tools and basic Bash scripting for navigating and managing files within various operating systems.

These prerequisites are intended to provide a foundation upon which the CBRCOR course can build. Having this foundational knowledge will help you to grasp the more advanced concepts presented in the course and apply them effectively in your role as a cybersecurity professional.


Target Audience for Performing CyberOps Using Core Security Technologies (CBRCOR)

The "Performing CyberOps Using Core Security Technologies (CBRCOR)" course equips professionals with advanced cybersecurity operational skills.


  • Security Analysts
  • Cybersecurity Specialists
  • Network Administrators and Engineers
  • Incident Response Team Members
  • Threat Intelligence Analysts
  • IT Managers and Directors
  • SOC (Security Operations Center) personnel
  • Information Security Professionals
  • Systems Integrators
  • Infrastructure Architects
  • Risk Management Staff
  • Compliance Officers
  • DevOps Engineers
  • Application Developers with security roles
  • Technical Auditors
  • Forensic Analysts
  • Cyber Defense Staff
  • Vulnerability Assessment Analysts
  • Cloud Security Architects
  • Data Privacy Officers


Learning Objectives - What you will Learn in this Performing CyberOps Using Core Security Technologies (CBRCOR)?

Introduction to the Course's Learning Outcomes and Concepts Covered:

The CBRCOR course equips learners with the skills to apply core security technologies in CyberOps, from playbook interpretation to automation, and incident response to threat intelligence.

Learning Objectives and Outcomes:

  • Interpret and apply security playbooks for various cyber threat scenarios, enhancing incident response capabilities.
  • Understand and adhere to compliance standards across industries, recognizing their role in shaping cybersecurity practices.
  • Evaluate cyber risk insurance concepts and limitations, contributing to informed decision-making on risk management.
  • Conduct thorough risk analyses by integrating asset evaluation, threat identification, and vulnerability assessment.
  • Apply incident response workflows and measure their effectiveness using common metrics, improving security operations.
  • Differentiate between cloud environments and assess their unique security considerations, particularly in IaaS and PaaS models.
  • Utilize data analytics to inform cybersecurity strategies and harden machine images to bolster system security postures.
  • Develop and implement network segmentation and hardening strategies, increasing overall network defense.
  • Leverage Threat Intelligence Platforms (TIP) and other tools to automate and enhance threat intelligence application.
  • Automate cybersecurity tasks using scripting and orchestration platforms, improving efficiency in security operations.

Technical Topic Explanation

System hardening

System hardening is the process of securing a computer system by reducing its vulnerability to cyber attacks. This is done by turning off unnecessary functions, applying security updates, and configuring software and systems to operate more securely. Essentially, system hardening aims to remove potential avenues for exploitation by minimizing the attack surface. This makes it much harder for hackers to find weak points to exploit, enhancing the security of the system. Steps involved can include updating software, creating strong user authentication protocols, and employing reliable firewall and antivirus software.

Network security

Network security involves policies, strategies, and practices designed to protect the integrity, confidentiality, and accessibility of computer networks and data. It combines multiple defenses at the edge and in the network using technologies, processes, and administrative controls. Security measures include firewalls, anti-virus software, intrusion detection systems, and encryption protocols to shield against unauthorized access, cyberattacks, and data breaches. Effective network security manages access to the network, detects vulnerabilities quickly, and prevents threats from entering or spreading, thereby safeguarding sensitive information and the infrastructure of communication systems.

Compliance with industry standards

Compliance with industry standards involves adhering to specific rules and guidelines set by regulatory bodies to ensure safety, quality, and reliability in products and services. These standards are developed to maintain consistency and meet the baseline of operational excellence across various industries. Following these standards helps companies avoid legal issues, improve system integration, and enhance customer trust. Ensuring compliance also often involves regular audits and certifications, which can further boost a company’s reputation and competitive edge in the market.

Data analytics

Data analytics is the process of examining data sets to draw conclusions about the information they contain. This practice involves using various tools and techniques to identify trends, uncover patterns, and derive insights that help organizations make data-driven decisions. Essentially, data analytics allows businesses to optimize their performances, predict market trends, improve customer engagement, and increase operational efficiency. By transforming vast amounts of raw data into actionable intelligence, data analytics empowers companies to enhance strategic planning and achieve competitive advantage.

Threat modeling

Threat modeling is a process used in cybersecurity to identify, assess, and prioritize potential threats to a system. It involves understanding how valuable assets could be attacked by adversaries, then creating defenses aimed at preventing or mitigating those threats. The goal is to design a more secure system by assessing risks early, guiding the security decisions throughout the development lifecycle, and reducing vulnerabilities before software is deployed. This proactive approach helps organizations protect sensitive data and systems effectively against potential cybersecurity attacks.

Malware analysis

Malware analysis is the process of studying and understanding malicious software (malware) to determine how it works, what it does, and how to defend against it. Analysts look at the code of suspected malware to analyze its intentions and mechanisms. This helps cybersecurity professionals develop strategies to prevent malware infections and mitigate their impacts. By understanding the behavior of malware, organizations can better safeguard their systems and data from harmful attacks.

Vulnerability management

Vulnerability management is a security process designed to proactively prevent the exploitation of IT vulnerabilities that exist within an organization. This involves identifying, classifying, remediating, and mitigating vulnerabilities in software or hardware. Regularly scanning systems and applications helps detect vulnerabilities that could be exploited by attackers. An effective management program reduces security risks and ensures compliance with industry regulations by continuously monitoring and addressing gaps in security before they can be exploited. This proactive approach is essential to maintain the integrity and security of an organization's IT environment.

Automation

Automation is the use of technology to perform tasks with minimal human intervention. It involves programming machines or software to carry out procedures that would typically require human effort, thus enhancing efficiency and reducing costs. In industries, automation can streamline production, increase precision, and improve safety. For businesses, it helps in managing repetitive tasks such as data entry or customer service, allowing employees to focus on more complex work. Overall, automation boosts productivity and reliability across various sectors, fostering innovation and technological advancement in processes.

Scripting

Scripting is a type of programming that allows you to create small programs or scripts to automate tasks on a computer. Unlike traditional programming, scripting is often simpler and uniquely designed to perform routine tasks such as data manipulation, file execution, or automating system operations. Scripts can be written in several languages such as Python, Bash, or JavaScript, depending on the task or environment. Essentially, scripting boosts productivity by performing laborious or repetitive tasks quickly and effortlessly, allowing users to focus more on complex problem-solving.

API usage

API, which stands for Application Programming Interface, is a set of rules that allow different software programs to communicate with each other. It's like a middleman that helps one application understand what another application wants or needs. Developers use APIs to access certain functionalities of an external software, without sharing the code. APIs are crucial for creating software applications that can easily integrate and function well with other software, enhancing features and expanding capabilities. They are used everywhere, from pulling your weather app data to processing payments online.

Orchestration platforms

Orchestration platforms manage and automate the tasks involved in deploying, managing, and scaling applications across multiple environments. These platforms handle the configuration, coordination, and management of complex computer systems and software. Common tasks include automating routine operations, provisioning resources, and ensuring that applications are deployed consistently and are operating efficiently. This simplifies the process of managing cloud environments and services, reduces the potential for errors, and enables organizations to focus on more strategic work. Essentially, orchestration platforms provide a structured framework to streamline and optimize IT operations and services.

Target Audience for Performing CyberOps Using Core Security Technologies (CBRCOR)

The "Performing CyberOps Using Core Security Technologies (CBRCOR)" course equips professionals with advanced cybersecurity operational skills.


  • Security Analysts
  • Cybersecurity Specialists
  • Network Administrators and Engineers
  • Incident Response Team Members
  • Threat Intelligence Analysts
  • IT Managers and Directors
  • SOC (Security Operations Center) personnel
  • Information Security Professionals
  • Systems Integrators
  • Infrastructure Architects
  • Risk Management Staff
  • Compliance Officers
  • DevOps Engineers
  • Application Developers with security roles
  • Technical Auditors
  • Forensic Analysts
  • Cyber Defense Staff
  • Vulnerability Assessment Analysts
  • Cloud Security Architects
  • Data Privacy Officers


Learning Objectives - What you will Learn in this Performing CyberOps Using Core Security Technologies (CBRCOR)?

Introduction to the Course's Learning Outcomes and Concepts Covered:

The CBRCOR course equips learners with the skills to apply core security technologies in CyberOps, from playbook interpretation to automation, and incident response to threat intelligence.

Learning Objectives and Outcomes:

  • Interpret and apply security playbooks for various cyber threat scenarios, enhancing incident response capabilities.
  • Understand and adhere to compliance standards across industries, recognizing their role in shaping cybersecurity practices.
  • Evaluate cyber risk insurance concepts and limitations, contributing to informed decision-making on risk management.
  • Conduct thorough risk analyses by integrating asset evaluation, threat identification, and vulnerability assessment.
  • Apply incident response workflows and measure their effectiveness using common metrics, improving security operations.
  • Differentiate between cloud environments and assess their unique security considerations, particularly in IaaS and PaaS models.
  • Utilize data analytics to inform cybersecurity strategies and harden machine images to bolster system security postures.
  • Develop and implement network segmentation and hardening strategies, increasing overall network defense.
  • Leverage Threat Intelligence Platforms (TIP) and other tools to automate and enhance threat intelligence application.
  • Automate cybersecurity tasks using scripting and orchestration platforms, improving efficiency in security operations.
Performing CyberOps Using Core Security Technologies (CBRCOR)