Decoy Technologies

The goal of deception technology is to prevent a cybercriminal who has managed to infiltrate a network from causing serious damage. The technology works by generating decoys or decoys that mimic legitimate technology assets throughout the infrastructure. These decoys can run in a virtual or real operating system environment and are designed to trick the cybercriminal into thinking they have found a way to escalate privileges and steal credentials. When a decoy is triggered, notifications are broadcast to a central decoy server that records the affected decoy and the attack vectors used by the cybercriminal.

Attivo Networks is a leader in decoy-based threat detection. Founded in 2011, Attivo Networks provides a comprehensive in-network deception platform for enterprise networks, public and private data centers, and specialized environments such as Industrial Control System (ICS) SCADA, Internet of Things (IoT), Sales Reporting (POS). While even the best security systems in companies cannot provide full protection against all attacks, Attivo Networks provides visible, verifiable alarms to detect, isolate and defend against cyber attacks. Attackers give themselves away with this deception system; providing protection to system components by performing comprehensive attack analysis, collecting data and responding to attacks.

Web Isolation

It is a security measure used to make users’ web browsers more secure. Web isolation is a technology developed to deal with potentially harmful websites, malware, and cyber threats. Basically, web isolation aims to keep dangerous content away by avoiding direct interaction with web content that has the potential to harm users’ devices or networks.

Web isolation is usually implemented with the following methods:

Remote Browsers: Instead of using a browser on their own devices to view web pages, users use browsers hosted on remote servers. In this way, malicious content and malware cannot access your devices.

Virtual Environment: Web pages are run in a virtual environment and the results are transferred to your real device. Thus, any malicious content is isolated in the virtual environment and cannot harm your real device.

Content Filtering: Web isolation systems analyze input and output traffic and filter malicious content. Users are allowed to access only safe content.

Advantages of web isolation:

Users’ devices become more secure and the risk of malware infection is reduced.

Provides security teams with greater control and monitoring to combat cyber threats.

Prevents sensitive data from being stolen or damaged.

Web isolation is used primarily in corporate environments and is an important security measure for businesses with increased security requirements.

APT Protection and Sandbox

APT (Advanced Persistent Threat) Protection refers to measures taken to provide defense against sophisticated and long-term threats in cybersecurity. APT attacks are known for their targeted, long-term and complex structures. They usually monitor specific targets, such as a private institution, government agency or critical infrastructure, for a long time and identify weak points to infiltrate and steal data. APT Protection involves creating a proactive and comprehensive security strategy against such threats.

The main features of APT Protection are:

Multi-Layered Security: APTs use different attack vectors and methods. APT Protection provides multi-layered security, offering protection at every level from the network to the application layer. These layers include firewalls, intrusion detection systems (IDS), intrusion prevention systems (IPS), endpoint security solutions and secure gateways.

Behavior Analysis and Anomaly Detection: APT attacks often use complex methods to avoid traditional attack signatures. APT Protection involves analyzing network and system behavior to detect deviations and anomalies. This helps catch malicious activity at an early stage.

Proactive Monitoring and Threat Intelligence: APT Protection involves continuous and proactive monitoring. Threat intelligence monitors attack trends and threat actors to take proactive action. This information allows security teams to respond quickly and keep their defenses up to date.

Access Control and Authentication: APT attacks can aim to gain unauthorized access. APT Protection provides strong authentication and access control, allowing only authorized users to access systems. This includes methods such as two-factor authentication (2FA) and role-based access control (RBAC).

Updates and Patches: APTs exploit vulnerabilities in software and hardware. APT Protection aims to mitigate such vulnerabilities by implementing regular software updates and security patches.

Content Filtering and Secure Email: APT attacks can start with phishing and malicious emails. APT Protection prevents such attacks by using content filtering and secure email solutions.

APT Protection offers a holistic approach to cybersecurity against the most complex and sophisticated threats. This protection helps security teams develop a proactive defense strategy against long-term and targeted attacks. Due to the complex nature of APT attacks, effective APT Protection relies on elements such as multi-layered security, behavioral analysis, and continuous threat intelligence.

Sandbox

A security measure used to protect computer networks and systems. A sandbox prevents malware or malicious processes from harming network or system resources by running computer programs or files in an isolated environment. Key features of a network security sandbox:

Isolation: A sandbox runs applications or files in an environment isolated from the actual operating system and network resources. This demarcates the boundaries of malware or attacks.

Testing and Analysis: A sandbox can use potentially malicious files or applications for security analysis. This provides an opportunity to examine the behavior of files and identify malicious activities.

Reversal: If a file or application is malicious, the sandbox prevents this file/application from harming the actual system. Thanks to this, the effects of the malware are limited and it is easier to reverse.

Operating System Independence: The sandbox can create an independent environment that can run on different operating systems, thus analyzing malware on different platforms.

Security Research: Network security professionals and security researchers can conduct research for malware analysis and threat discovery using sandbox environments.

Network security sandboxes play an important role among cybersecurity measures. Such solutions provide the ability to identify and analyze new threats while making computer networks and systems more secure.

Email Sandbox Security is one of the email security concepts and aims to isolate and analyze potentially malicious or dangerous emails. Email Sandbox Security is used in the following ways:

Malicious Email Attachment Isolation: Email sandbox security isolates email attachments or links and analyzes potentially dangerous content. This prevents malware or malicious links from harming real users.

Spam and Ransomware Detection: Email sandboxes are used to detect spam emails and ransomware-related emails. It isolates these emails and analyzes their content.

Malicious Email Attachment Isolation: Email sandbox security isolates email attachments or links and analyzes potentially dangerous content. This prevents malware or malicious links from harming legitimate users.

Spam and Ransomware Detection: Email sandboxes are used to detect spam emails and ransomware-related emails. They isolate these emails and analyze their content to determine if they are dangerous.

Phishing Attack Detection: Phishing attacks involve dangerous emails that attempt to trick users into giving away personal information. Email sandbox security protects against these types of attacks and analyzes these emails to detect phishing attempts.

Cyber ​​Threat Analysis: Email sandboxes are used to analyze new or advanced cyber threats. This helps security professionals understand new attacks and take countermeasures.

Email sandbox security allows incoming emails to be analyzed in an isolated environment, preventing malicious content from reaching systems. This type of security measure helps organizations take a more effective and proactive approach to email security.

DDOS

A DDoS attack is a type of cyber attack that targets a target server or network service. These types of attacks are carried out by sending a large amount of traffic or requests to a service in order to prevent it from operating normally or to make it unavailable.

The main characteristics of DDoS attacks:

Distributed Attack: The “Distributed” part means that the attack comes from multiple computers or devices. Attackers carry out the attack using a large number of devices from a large network of computers that they control, called a botnet (zombie army). This compresses the target more effectively and makes it harder to bypass defense mechanisms.

Denial of Service: DDoS attacks aim to make the service unavailable by sending large amounts of traffic or requests in order to overload the target’s network resources or servers. This prevents the target from operating normally and prevents users from accessing the service.

Deception Tactics: Attackers can use various deception tactics to hide attacks or bypass defense mechanisms. For example, they may use fake IP addresses or sources to hide their traffic.

DDoS attacks can pose a serious threat to targeted organizations. Attacks can cause websites to crash, online services to be interrupted, and business continuity issues to occur. Therefore, organizations create defense mechanisms against DDoS attacks, and network security experts develop various techniques to detect and prevent such attacks.

DNS Security

DNS Security is a set of measures aimed at ensuring the security of the Domain Name System, which plays a critical role in communication on the Internet. DNS is a system that directs internet traffic by converting the names of websites (domain names) into IP addresses. DNS Security refers to the measures taken to ensure the security of this process.

DNS Security is important for a website or digital platform because:

User Security: DNS Security ensures that users access websites securely. It protects against manipulation attempts by malicious people and ensures that users are directed to the right sites.

Data Security: Proper DNS Security measures reduce the risk of data leakage. This is especially important when transmitting personal and sensitive information.

Service Continuity: DNS attacks can cause service interruptions. DNS Security prevents such attacks and ensures the uninterrupted accessibility of your website.

Brand Security: Attackers can make your brand reputation risky for users through DNS manipulation. DNS Security protects the reliability and integrity of your brand.

Legal Compliance: Data privacy laws may require you to implement DNS Security measures. These measures ensure your compliance with legal regulations.

DNS Security increases the security of your website in important areas such as user security, data security, service continuity and brand security. With the right DNS Security measures, you can create an infrastructure that is more resilient to cyber attacks and ensure the security of your business.

SSL/TLS Visibility

SSL/TLS Visibility is a technique used to examine and analyze encrypted traffic occurring on a network. SSL (Secure Sockets Layer) and TLS (Transport Layer Security) are widely used encryption protocols to secure data transmission over the internet. SSL/TLS Visibility allows security teams to inspect this encrypted traffic to detect threats and meet compliance and policy requirements.

The importance and use of SSL/TLS Visibility can be explained as follows:

Examining Encrypted Traffic: A large portion of today’s internet traffic is encrypted with SSL/TLS. SSL/TLS Visibility allows you to open this encrypted traffic and examine the data it contains. This is critical for detecting malware, phishing, and other cyber threats.

Security Monitoring and Threat Detection: SSL/TLS Visibility allows security teams to monitor and analyze encrypted traffic on the network. This allows them to detect potential threats hidden using encryption and intervene when necessary.

Compliance and Policy Control: Many industries require adherence to specific compliance standards. SSL/TLS Visibility can help you verify compliance with these standards by analyzing traffic. You can also check compliance with internal security policies.

User Privacy and Data Protection: SSL/TLS Visibility should be implemented with caution when addressing data security and privacy concerns. Encrypting traffic is important to protect user privacy. When using SSL/TLS Visibility, it is essential to ensure data privacy and comply with legal regulations.

Integration with Multiple Security Tools: SSL/TLS Visibility provides comprehensive security control by integrating with firewalls, intrusion detection systems, and other security tools. This provides a broader view of network security.

SSL/TLS Visibility allows for the inspection of encrypted traffic, allowing for the detection of cyber threats and the closure of vulnerabilities. However, when using this method, it is critical to be mindful of user privacy, data protection, and legal compliance.

Network Threat Discovery and Prevention (NDR)

Network Threat Discovery and Response (NDR) is a cybersecurity approach used to detect and intervene in unusual, suspicious, or threatening activities on a network. NDR provides the ability to detect cyber threats early and respond quickly by performing in-depth analysis of network traffic.

The key components and benefits of NDR are as follows:

In-Depth Traffic Analysis: NDR continuously monitors and analyzes network traffic. It identifies normal network behavior and deviations from this behavior by examining both incoming and outgoing traffic. This helps in early detection of abnormal events occurring on the network.

Behavior-Based Detection: Unlike traditional signature-based threat detection systems, NDR focuses on behavioral analysis. This reveals unusual activities by monitoring user and system behavior on the network. Behavior-based detection is effective in detecting previously unseen threats.

Use of Machine Learning and Artificial Intelligence: NDR systems utilize machine learning and artificial intelligence techniques to analyze large amounts of network traffic data and detect complex threats. This allows the system to detect threats faster and more accurately.

Real-Time Monitoring and Alerts: NDR monitors network traffic in real time and automatically sends alerts when suspicious activity is detected. This allows security teams to quickly respond to threats and prevent potential damage.

Threat Response Capability: NDR not only detects threats, but also provides the capacity to respond to those threats. This can include isolating threats, mitigating attacks, or blocking suspicious traffic.

Compliance and Forensic Analysis: NDR provides comprehensive monitoring and recording of network events. This is critical when responding to incidents or gathering evidence for regulatory compliance. It also provides valuable data for forensic analysis.

Integration and Compatibility: NDR systems can often be integrated with other security tools and systems. This can collaborate with other security systems, such as endpoint security, security information and event management (SIEM), to create a more comprehensive security strategy.

Network Threat Discovery and Prevention (NDR) offers an approach to network security focused on early detection and effective response to complex threats. Through elements such as real-time monitoring, behavior-based detection, and machine learning, NDR complements traditional threat detection methods to enhance network security.