MikroTik Certified Security Engineer (MTCSE)
1 Introduction to Network Security
1-1 Understanding Network Security
1-2 Importance of Network Security
1-3 Overview of MikroTik Security Solutions
2 Network Security Fundamentals
2-1 Network Threats and Vulnerabilities
2-2 Security Policies and Procedures
2-3 Risk Management and Assessment
2-4 Security Controls and Countermeasures
3 MikroTik RouterOS Basics
3-1 RouterOS Overview
3-2 RouterOS Installation and Configuration
3-3 Basic RouterOS Commands
3-4 User Management and Access Control
4 Firewall and NAT Configuration
4-1 Introduction to Firewalls
4-2 Firewall Rules and Policies
4-3 Network Address Translation (NAT)
4-4 Advanced Firewall Techniques
5 VPN Configuration and Management
5-1 Introduction to VPNs
5-2 Site-to-Site VPN Configuration
5-3 Remote Access VPN Configuration
5-4 VPN Security Best Practices
6 Wireless Security
6-1 Wireless Network Threats
6-2 Wireless Security Protocols
6-3 MikroTik Wireless Security Configuration
6-4 Wireless Intrusion Detection and Prevention
7 Traffic Shaping and QoS
7-1 Introduction to Traffic Shaping
7-2 Quality of Service (QoS) Concepts
7-3 Traffic Shaping and QoS Configuration
7-4 Monitoring and Tuning QoS
8 Intrusion Detection and Prevention
8-1 Introduction to Intrusion Detection Systems (IDS)
8-2 Introduction to Intrusion Prevention Systems (IPS)
8-3 MikroTik IDSIPS Configuration
8-4 Analyzing and Responding to Alerts
9 Security Monitoring and Logging
9-1 Importance of Security Monitoring
9-2 RouterOS Logging Configuration
9-3 Analyzing Logs for Security Incidents
9-4 Log Retention and Management
10 Advanced Security Topics
10-1 Secure Routing Protocols
10-2 Secure DNS Configuration
10-3 Network Segmentation and Isolation
10-4 Security Automation and Scripting
11 Certification Exam Preparation
11-1 Overview of MTCSE Exam
11-2 Exam Format and Structure
11-3 Study Tips and Resources
11-4 Practice Exam and Review
Advanced Security Topics for MTCSE

Advanced Security Topics for MikroTik Certified Security Engineer (MTCSE)

1. Zero Trust Architecture

Zero Trust Architecture (ZTA) is a security model that assumes no user or device is inherently trustworthy, even if they are inside the network. It requires continuous verification of identity and context before granting access.

Example: Think of ZTA as a high-security building where every person, including employees, must show their ID and pass through a metal detector every time they enter, regardless of their previous access history.

2. Multi-Factor Authentication (MFA)

Multi-Factor Authentication (MFA) is a security process that requires users to provide two or more verification factors to gain access to a resource. This adds an extra layer of security beyond just passwords.

Example: Imagine MFA as a bank vault that requires not only a key (password) but also a fingerprint (biometric) and a code sent to your phone (OTP) to open.

3. Network Segmentation

Network Segmentation involves dividing a network into smaller, isolated segments to limit the spread of attacks and improve security. Each segment operates independently, reducing the attack surface.

Example: Consider network segmentation as dividing a large office building into separate wings, each with its own security checkpoints, so that a breach in one wing does not compromise the entire building.

4. Advanced Threat Detection

Advanced Threat Detection uses sophisticated techniques such as machine learning, behavioral analysis, and big data analytics to identify and respond to complex and evolving threats that traditional methods might miss.

Example: Think of advanced threat detection as a highly trained security team that not only checks for known threats but also uses advanced technology to predict and prevent new, unseen threats.

5. Secure SD-WAN

Secure SD-WAN (Software-Defined Wide Area Network) combines the benefits of SD-WAN, such as simplified network management and improved performance, with robust security features like encryption and threat detection.

Example: Imagine Secure SD-WAN as a high-speed, secure highway that not only ensures fast travel (network performance) but also has multiple security checkpoints (encryption and threat detection) along the way.

6. Cloud Security

Cloud Security involves protecting data, applications, and infrastructure involved in cloud computing. It includes measures like encryption, identity management, and compliance monitoring.

Example: Think of cloud security as a fortified vault in the sky (cloud) where your valuable data is stored. The vault is protected by multiple layers of security, ensuring your data is safe from theft and unauthorized access.

7. Endpoint Security

Endpoint Security focuses on protecting individual devices (endpoints) such as laptops, smartphones, and IoT devices from cyber threats. It includes antivirus, anti-malware, and device management solutions.

Example: Consider endpoint security as a protective shield for each device in your network, ensuring that even if one device is compromised, the rest of the network remains secure.

8. Data Loss Prevention (DLP)

Data Loss Prevention (DLP) is a strategy to prevent sensitive data from being lost, misused, or accessed by unauthorized users. It involves monitoring, detecting, and blocking data transfers that violate security policies.

Example: Imagine DLP as a vigilant guard who monitors all data transfers, ensuring that sensitive information (like classified documents) is not leaked or accessed by unauthorized individuals.

9. Security Orchestration, Automation, and Response (SOAR)

Security Orchestration, Automation, and Response (SOAR) platforms integrate and automate security operations, enabling faster and more efficient incident response. They combine threat intelligence, case management, and automation tools.

Example: Think of SOAR as a highly efficient security operations center that uses advanced technology to automate routine tasks, allowing human analysts to focus on complex incidents and strategic decisions.

10. Identity and Access Management (IAM)

Identity and Access Management (IAM) is a framework of policies and technologies that ensure the right individuals have the appropriate access to technology resources. It includes user authentication, authorization, and accountability.

Example: Consider IAM as a sophisticated keycard system for a high-security facility. Only individuals with the correct keycard (authentication) can access specific areas (authorization), and every access is logged for accountability.

By mastering these advanced security topics, you will be well-equipped to handle complex security challenges and ensure the protection of your network and data.