Fortinet predicts 2019 cyber threats

Fortinet, a global leader in broad, integrated, and automated cybersecurity solutions, unveiled predictions from the FortiGuard Labs team about the threat landscape for 2019 and beyond. These predictions reveal methods and techniques that Fortinet researchers anticipate cybercriminals will employ soon, along with important strategy changes that will help organisations defend against these oncoming attacks. 

Cyberattacks will become smarter and more sophisticated

For many criminal organisations, attack techniques are evaluated not only in terms of their effectiveness, but in the overhead required to develop, modify, and implement them. As a result, many of their attack strategies can be interrupted by addressing the economic model employed by cybercriminals. Strategic changes to people, processes, and technologies can force some cybercriminal organisations to rethink the financial value of targeting certain organisations. 

One way that organisations are doing this is by adopting new technologies and strategies such as machine learning and automation to take on tedious and time-consuming activities that normally require a high degree of human supervision and intervention. These newer defensive strategies are likely to impact cybercriminal strategies, causing them to shift attack methods and accelerate their own development efforts. 

In an effort to adapt to the increased use of machine learning and automation, we predict that the cybercriminal community is likely to adopt the following strategies, which the cybersecurity industry as a whole, will need to closely follow.

•  Artificial Intelligence Fuzzing (AIF) and vulnerabilities: Fuzzing has traditionally been a sophisticated technique used in lab environments by professional threat researchers to discover vulnerabilities in hardware and software interfaces and applications. They do this by injecting invalid, unexpected, or semi-random data into an interface or program and then monitoring for events such as crashes, undocumented jumps to debug routines, failing code assertions, and potential memory leaks. Historically, this technique has been limited to a handful of highly skilled engineers working in lab environments. 
•  Zero-day mining using AIF: Once AIF is in place, it can be pointed at code within a controlled environment to mine for zero-day exploits. This will significantly accelerate the rate at which zero-day exploits are developed. Once this process becomes streamlined, zero-day mining-as-a-service will become enabled, creating customised attacks for individual targets. This will change how organisations will need to approach security as there will be no way to anticipate where these zero-days will appear, nor how to properly defend against them. 
•  The “price” of zero-days: Historically, the price of zero-day exploits has been quite high, primarily because of the time, effort, and skill required to uncover them. But as AI technology is applied over time, such exploits will shift from being extremely rare to becoming a commodity. We have already witnessed the commoditisation of more traditional exploits, such as ransomware and botnets, and the results have pushed many traditional security solutions to their limits.
•  Swarm-as-a-service: Significant advances in sophisticated attacks powered by swarm-based intelligence technology is bringing us closer to a reality of swarm-based botnets known as hivenets. This emerging generation of threats will be used to create large swarms of intelligent bots that can operate collaboratively and autonomously. These swarm networks will not only raise the bar in terms of the technologies needed to defend organisations, but like zero-day mining, they will also have an impact on the underlying cybercriminal business model. Ultimately, as exploit technologies and attack methodologies evolve, their most significant impact will be on the business models employed by the cybercriminal community. Currently, the criminal ecosystem is very people-driven. Some professional hackers for hire build custom exploits for a fee, and even new advances such as Ransomware-as-a-Service requires black hat engineers to stand up different resources, such as building and testing exploits and managing back-end C2 servers. But when delivering autonomous, self-learning Swarms-as-a-Service, the amount of direct interaction between a hacker-customer and a black hat entrepreneur will drop dramatically.
•  Poisoning machine learning: Machine learning is one of the most promising tools in the defensive security toolkit. Security devices and systems can be trained to perform specific tasks autonomously, such as baselining behaviours, applying behavioural analytics to identify sophisticated threats, or tracking and patching devices. Unfortunately, this process can also be exploited by cyber adversaries. By targeting the machine learning process, cybercriminals will be able to train devices or systems to not apply patches or updates to a particular device, to ignore specific types of applications or behaviours, or to not log specific traffic to evade detection. This will have an important evolutionary impact on the future of machine learning and AI technology.

Defences will become more sophisticated

To counteract these developments, organisations will need to continue to raise the bar for cybercriminals. Each of the following defensive strategies will have an impact on cybercriminal organisations, forcing them to change tactics, modify attacks, and develop new ways to assess opportunities. The cost of launching their attacks will escalate, requiring criminal developers to either spend more resources for the same result, or find a more accessible network to exploit.

•  Advanced deception tactics: Integrating deception techniques into security strategies to introduce network variations built around false information will force attackers to continually validate their threat intelligence, expend time and resources to detect false positives, and ensure that the networked resources they can see are actually legitimate. And since any attacks on false network resources can be immediately detected, automatically triggering countermeasures, attackers will have to be extremely cautious performing even basic tactics such as probing the network.
•  Unified open collaboration: One of the easiest ways for a cybercriminal to maximise investment in an existing attack and possibly evade detection is to simply make a minor change, even something as basic as changing an IP address. An effective way to keep up with such changes is by actively sharing threat intelligence. Continuously updated threat intelligence allows security vendors, and their customers, to stay abreast of the latest threat landscape. Open collaboration efforts between threat research organisations, industry alliances, security manufacturers, and law enforcement agencies will significantly shorten the time to detect new threats by exposing and sharing the tactics used by attackers. Rather than only being responsive, however, applying behavioural analytics to live data feeds through open collaboration will enable defenders to predict the behavior of malware, thereby circumventing the current model used by cybercriminals to repeatedly leverage existing malware by making minor changes. 

Speed, integration, and automation are critical cybersecurity fundamentals

There is no future defence strategy involving learning without a means to collect, process, and act on threat information in an integrated manner to produce an intelligent response. To contend with the growing sophistication of threats, organisations must integrate all security elements into a security fabric to find and respond to threats at speed and scale. Advanced threat intelligence correlated and shared across all security elements needs to be automated to shrink the necessary windows of detection and to provide quick remediation. Integration of point products deployed across the distributed network, combined with strategic segmentation, will significantly help fight the increasingly intelligent and automated nature of attacks.