Wednesday, April 29, 2026
Home Blog Page 132
AI cybersecurity guidance for small businesses

Know where your business is exposed, what matters most, and what to fix first.

CyberExperts gives small businesses AI-generated cyber checkups, practical recommendations, and recurring cyber hygiene monitoring — without enterprise consulting complexity.

AI Cyber CheckupIdentify likely weak points and get a prioritized action plan.
Recurring MonitoringStay current with updated cyber hygiene guidance over time.
Built for SMBsPractical recommendations for real-world small business setups.

Most small businesses know cybersecurity matters. Very few know what to fix first.

CyberExperts turns cybersecurity confusion into a practical action plan. Instead of vague fear, generic checklists, or expensive consulting, you get AI-generated guidance focused on likely risks, weak spots, and the most important next steps.

How it works

1. Tell us about your businessShare your team size, tools, email setup, device practices, and current security habits.
2. CyberExperts analyzes your setupOur AI reviews likely weak points, common risks, and practical cyber hygiene gaps.
3. Get a prioritized action planReceive clear next steps in plain English — focused on what matters most.
4. Stay current with ongoing monitoringAdd recurring cyber hygiene monitoring if you want updated guidance over time.

Start with a checkup. Continue with monitoring.

AI Small Business Cyber Checkup

A one-time AI-generated assessment that identifies likely weaknesses, highlights the biggest issues, and gives you a practical action plan.

  • Likely weak points and avoidable risks
  • Top-priority recommendations
  • Plain-English next steps

AI Cyber Hygiene Monitor

A recurring cyber hygiene subscription that updates your recommendations, flags likely weak spots, and helps you stay current over time.

  • Recurring reassessment
  • Updated recommendations
  • Refreshed priorities over time

What CyberExperts does — and does not do

Done by AICyberExperts is built as an AI-delivered cybersecurity guidance product.
For small businessesDesigned for operators who want practical guidance without enterprise complexity.
Not a magic guaranteeIt helps identify likely risks and prioritize what to fix first.
Recurring option availableContinue with ongoing Cyber Hygiene Monitor updates over time.

See your biggest cybersecurity gaps in plain English.

Start with an AI Cyber Checkup and get a practical view of what to fix first.

Best Open Source Firewall (Top 8)

A firewall is an essential component of a network security system as it isolates and protects the network from unwanted access and malicious intrusions. It is important since it acts as a barrier between external and internal networks.

Organizations require robust firewalls to prevent intruders, such as hackers, Trojan attackers, and viruses from accessing and harming a network or data centers. Additionally, firewalls monitor incoming network data packets to identify and remediate various threats, including DDoS attacks, network snooping, and password cracking attacks.

There are two primary types of firewalls – software and hardware firewalls. A hardware firewall is a physical device designed to be a network barrier. Once deployed to a network, it enforces security policies and access controls and inspects all outbound and inbound traffic.

On the other hand, a software firewall is a computer program created to filter malicious network traffic, prevent unauthorized network access, and protect against threats and attacks. Therefore, an open-source firewall can be categorized as a software firewall. In contrast to commercial firewall solutions, a community maintains and updates an open-source firewall to meet the ever-changing cybersecurity landscape.

Are Open-Source Firewalls the Best?

An open-source firewall is distributed and developed under a general public license and other open-source licenses. One of the primary reasons they are the best firewalls is that anyone can access the source code for free. As a result, it enables a peer-review approach, which theoretically permits various individuals to identify and correct existing flaws in the software. Thus, it is often more secure and has better features than most available commercial firewall solutions.

Open-source firewalls are also best suited for individuals possessing high technical expertise. These include white hat, black hat hackers, and professionals that advocate for open-source operating systems. The most notable advantage is the cost, given that open-source programs are free and suitable for small businesses. Also, the open-source licenses used to develop and distribute an open-source firewall mean that anyone is free to copy, modify, study, and use it without restrictions.

Despite the benefits, some drawbacks come with using an open-source firewall. They include:

  • They are not documented: Open-source firewall programs are free to develop, modify, and change to meet emerging security needs. While this is a good thing, developers may not be inclined or may lack time to prepare and document help files for open-source firewall products. Coupled with the inherently unintuitive interfaces, new users may find it challenging and frustrating to learn how to configure and set up an open-source firewall correctly.
  • Hard to use: Accurately configuring an open-source firewall software requires users with a high level of expertise. Most of the available open-source firewalls are configured using obscure commands and command-line interfaces, in contrast to commercial products that come with easy-to-use interfaces. Learning the commands may pose a challenge to new users and home users, especially if they are not well-versed with the underlying operating system.
  • Lack of real-time monitoring: A significant number of open-source firewalls lack extra features like real-time monitoring, alerting, and logging. Such features may appear insignificant for individual or home use but are crucial to a corporate organization or business environment. The lack of such critical features may prevent administrators from tracking security events, providing forensics data required to investigate a security incident, or justifying security decisions backed by documented information.

Although the disadvantages described above may make open-source firewalls less appealing, multiple open-source firewall solutions have gained traction and become immensely popular in different business settings. Therefore, it is worth identifying some of the most popular open-source firewalls for 2022.

The Best Open Source Firewall for 2022

1.     PfSense

PfSense Best open source firewall

Most experts regard PfSense as the best open source firewall globally. PfSense is an open source, custom kernel based on FreeBSD, a free firewall that protects vital corporate networks against intrusions and attacks. Numerous organizations rely on PfSense to prevent unauthorized or malicious individuals from accessing sensitive information.

Additionally, PfSense enables secure connectivity and access to cloud networks. Essentially, PfSense developers built the product on the concept of a stateful firewall to ensure it contains packet filtering and features that are mostly found in the more expensive commercial firewalls.

In addition, PfSense enables companies to access a wide and comprehensive network of security solutions suited for different kinds of threat landscapes and environments. The PfSense open source firewall solution unlocks access to some of the most reliable platforms, engineered to provide the most robust levels of performance, stability, security, and confidence. PfSense also delivers valuable support through comprehensive documentation. Some of PfSense’s key features include:

  • Real-time monitoring
  • Has a dynamic DNS by including multiple DNS clients
  • Firewall capabilities like port/IP filtering, scrubbing and limiting network connections
  • Inbuilt load balancing for distributing load to several backend servers
  • Network address translation for port reflection and forwarding
  • Failover to seconder in the event the primary fails, which ensures high availability
  • A virtual private network that supports OpenVPN and IPsec
  • Maintains a history of resource utilization to enable reporting

2.     IPFire

ipfire best open source firewall

IPFire is a Linux-based open source firewall built on top of Netfilter to provide advanced network security for corporate business networks. Specifically, IPFire delivers extensive protection from various internet and DDoS connections attacks. The IPFire open-source software solution results from the work of a dedicated online community consisting of thousands of developers.

Besides powerful capabilities, IPFire open-source firewall is lightweight, making it easy to deploy and implement. For example, IPFire enables users to access an intrusion detection system and use it to analyze home network traffic and pinpoint potential anomalies or exploits accurately.

It is worth noting that the IPFire firewall enables users to set up a system to block attackers automatically once it detects attacks. Similar to some of the most popular firewalls, IPFire provides a web interface through which users can set or modify various configurations. Besides, IPFire permits users to configure a network to meet different requirements, such as advanced logging and graphical reports. IPFire’s key features include:

  • Enables stateful packet inspection
  • Provides an intrusion detection system
  • Provides a proxy server capable of catching and content filtering functionalities
  • Provides a virtual private network with OpenVPN and IPsec
  • Wake-on-LAN (WOL) capabilities
  • Has a dynamic DNS
  • Provides a DHCP server

3.     VyOS

vyos open source firewall

VyOS is an open-source firewall network solution designed to operate on a Linux distribution system. As a result, it is one of the few open-source firewall products with a unified interface for managing all functions. In addition, the VyOS open-source network provides access to a free routing platform that complements most of the functions found in other commercially available firewall products from leading vendors. Furthermore, the VyOS open-source firewall solution runs on standard operating systems. Therefore, it is suitable for use as a firewall platform or router platform for multiple kinds of cloud deployments.

That said, VyOS enables companies to utilize a comprehensive firewall system that provides access to industry-standard routing protocols and enables policy-based and multi-path routing. Also, users can set up the VyOS solution on specific VPN solutions to ensure secure remote access and communications.

Moreover, the unified management interface provides access to multiple applications like StrongS/WAN, OpenVPN, DHCPD, and Quagga. VyOS stands out from most open-source firewalls since it can be installed on a cloud platform, virtual machine, or other physical hardware. VyOS key features include:

  • Quality of Service (QoS) policies, such as traffic redirection, drop tail, fair-queue, among others
  • sFlow and NetFlow
  • IPv6 and IPv4 traffic firewall rulesets
  • Dynamic and static routing
  • Tunnel interfaces
  • URL and web proxy filtering
  • DHCPv6 and DHCP server and relay
  • VXLAN, static L2TPv3, SIT, IPIP, GRE, PPPoE
  • Network address translation

4.     Untangle open source firewall

Untangle is an advanced open-source firewall solution that provides a host of security functionalities and solutions to modern digital brands. Also, Untangle delivers a secure and powerful environment for company digital networks. The open-source firewall product is also dynamic since users can install it on a server, dedicated virtual appliance, public cloud, or virtual machine and use it to secure their networks, applications, and data.

Untangle is also dynamic since it can be downloaded in various formats to suit multiple deployment needs. For example, users can download Untangle as a VMware image, ISO image, or USB image. The company also provides the same open-source software package as a standalone hardware solution that users can connect to their networks as a hardware firewall.

Untangle open-source firewall is also designed to simplify network security to save users’ time. The firewall is built to strike a balance between; protection and performance; and productivity and policy. Thus, it is ideal for companies looking for a cost-effective, powerful network security product that can address any emerging security challenge. The firewall is applicable across diverse settings, including large distributed enterprises, schools, and small remote offices. Untangle comes with different software modules that can be disabled or enabled individually. The firewall’s key features include:

  • Intrusion prevention
  • Virus blocker
  • Firewall functions
  • Adblocker
  • Spam blocker
  • OpenVPN
  • Web monitoring

5.     Smoothwall Express

Smoothwall best open source firewall

The Smoothwall express open-source firewall delivers seven layers of application control and can be a part of or be a standalone package. Also, the Smoothwall firewall can be combined with the Smoothwall filter to provide organizations with a complete package for securing their online activities. Alternatively, companies can use the firewall on its own to manage network bandwidth, filter dynamic threats in real-time, and use it as a gateway anti-malware protection.

The Smoothwall open-source firewall is one of the exciting security tools on the market. Thousands of developers continuously develop and update the GNU- and Linux-based Smoothwall solution. It is also security-hardened to minimize the risks of exploitable vulnerabilities that can impact users adversely.

It is important to note that the Smoothwall firewall is a Linux firewall that can be configured through a web-based graphical user interface. The firewall requires users to possess little knowledge of a Linux system to install, configure, and use it to secure a network. Smoothwall express firewall supports external/internal network filtering, demilitarized zones, Local Area Networks, web proxy for acceleration, etc. The key features include:

  • Simple to use QoS
  • Outbound filtering
  • List of malicious IP addresses to deny access
  • vvgTimed access
  • Port forwarding
  • Supports external connectivity through DHCP ethernet, PPPoA, PPPoE, and static ethernet
  • Snort rules updated automatically for an intrusion detection system

6.     OPNSense

OPNSense is an open-source firewall project that is free, easy to use, and ideal for scaling infinitely. OPNSense delivers a powerful firewall that supports IPv6 and IPv4 live views on blocked and passed traffic. It also provides the best-in-class intrusion detection and virtual private network solutions. Moreover, OPNSense provides multi-WAN capabilities that include state synchronization, intrusion detection, and hardware failover.

Installing the OPNSense open-source firewall enables two-factor authentication throughout the secured system for users and other services like a VPN gateway. Unlike most open-source projects, OPNSense provides multi-language support for different users and has an intuitive user interface designed to provide easy development and access.

You can find most security solutions in a commercial firewall included in OPNSense firewalls, which are built to provide a rich set of security offerings that come with the advantages of verifiable and open sources. Some of the OPNSense features include:

  • Hardware failover and high availability
  • DNS forwarder and DNS server
  • Inline prevention and intrusion detection
  • Built-in monitoring and reporting tools
  • VPN solutions
  • Supports various plugins

7.     Endian

The Endian Firewall Community (EFW) is an open-source firewall solution and UTM that provides a unique combination of various security capabilities. It comes as a free version, but the developers do not provide additional support. Companies can use the Endian open-source firewall to establish email and web security through powerful built-in analytics. Once users download the Endian firewall solution, they get turnkey products, additional unified threat management, and open-source anti-virus products. It also provides powerful VPN services through which users can unlock extra support. Endian’s key features include multi-WAN, QoS, intrusion prevention, and email security.

8.     ClearOS

ClearOS best open source firewall

The ClearOS open-source firewall is based on CentOS, and it is designed to transform a standard PC into a dedicated gateway/internet server and firewall solution. ClearOS comes in three editions- ClearOS community, ClearOS business, and ClearOS home. The ClearOS community edition comes as a free version, but users must purchase a subscription for the business and home edition.

The ClearOS firewall is suited for SMBs and startups. Also, ClearOS comes as a complete network firewall solution whose functionalities can be extended by installing various applications, among them being DNS server, DMZ, DHCP server, bandwidth manager, among others. The applications enable various functions that can be configured through a web-based interface. The firewall’s most notable features are:

Bandwidth QoS manager

Content and web proxy filtering

Provides multiple security levels

Managing file-sharing usage

Intrusion detection and prevention systems

Firewall functionalities, security, and networking

AI vs AI: The Great Game

0

By Ajay Singh, Author of CyberStrong! A Primer on Cyber Risk Management for Business Managers

Artificial Intelligence (AI) has boosted productivity, enhanced the quality of decision making and provided solutions to many complex problems. AI comprises a wide range of algorithms, models, and analytical technologies working in tandem to enable computers and other machines to sense, evaluate, act autonomously and even learn with human-like capabilities. While it is considered among the most disruptive technologies to revolutionize the management and business models of organizations, it has also changed the way we live, work, learn and play. Unwittingly, it has also kick-started a great game in cyberspace between hackers deploying AI for their nefarious goals and defenders who use AI for identifying threats and shoring up their defenses. It may be early days yet, but the AI-driven cyber arms race in cyberspace is truly underway between hackers and defenders and is expected to go on for a long time to come.

Bruce Schneier a public-interest technologist and fellow at the Harvard Kennedy School suggests that ‘artificial intelligence will eventually find vulnerabilities in all sorts of social, economic, and political systems, and then exploit them at unprecedented speed, scale, and scope. After hacking humanity, AI systems will then hack other AI systems, and humans will be little more than collateral damage. He further goes on to say that ‘Hackers Used to Be Humans. Soon, AIs Will Hack Humanity’(Hackers Used to Be Humans. Soon, AIs Will Hack Humanity | WIRED, n.d.). Is this an extreme view? A closer look at issues around the use of artificial intelligence will tell us that we are well on our way.

To understand the issues involved, we need to examine the role of AI in offensive maneuvers by hackers and how AI can help the defenders.

AI is a powerful weapon for hackers

The weaponization of AI was inevitable. As the defenders got their act together and began to close vulnerability gaps and protect entry points, hackers found AI as a useful way to not only find innovative ways to get past defenses but also to automate a lot of human effort. AI proved a valuable addition to their arsenal which helped them to add speed, stealth, and unpredictability into their attacks. Further advances in the form of Machine Learning (ML) enabled them to even adapt and boost their chances of success of the attacks.

The World Economic Forum in a report(3 Ways AI Will Change the Nature of Cyber Attacks | World Economic Forum, n.d.) suggests that AI-powered cyberattacks are not a hypothetical threat to be dealt with in the future.  They observe that the required building blocks for the use of offensive AI are already in place such as -highly sophisticated malware, financially motivated – and ruthless – criminals willing to use any means possible to increase their return on investment, and open-source AI research projects which make highly valuable information available in the public domain.  They further propose that AI can change the nature of cyber-attacks. Firstly, through impersonation of users by using AI to capture the characteristics of an individual’s behavior and language by analyzing email and social media communications. Secondly, using AI for stealth, timing, and speed. Hackers can use AI to maintain a long-term presence in targeted environments, identify vulnerabilities and attack opportunities by analyzing large volumes of data as well evade security controls and compromise more devices. Thirdly, AI is useful for hackers in incorporating greater levels of sophistication and conducting their operations at great speed and at many times the scale. It is worth mentioning hackers today can cause greater harm by sourcing or renting advanced AI-driven technologies on the darknet and deploying them without having the skill and knowledge to develop them. This easy availability makes the threat for AI-driven attacks a major cause for concern and raises the table stakes in the security game to another level.

Hackers have recognized that AI can boost their efforts and criminal activities in a big way.  It allows them to operate on a bigger scale with the added benefits of speed, minimum effort, and cost. Some of the areas where they have been actively using AI are as follows:

AI-powered Phishing

To be able to harvest credentials and launch mass bespoke phishing attacks was every hacker’s dream. Today, by deploying AI, they can firstly gather, analyze, and use information about companies, employees, and other targets more easily and quickly. This capability enables them to plan and execute targeted mass spear-phishing attacks with greater chances of success on unsuspecting victims.

AI for Deep Fakes & deception

Spoofing and impersonation are techniques that have been used by hackers for some time now by impersonating a company, brand, or known person. Now, they can use deep fakes which combine audio and/or video that is either entirely created or modified by artificial intelligence or machine learning to plausibly misrepresent someone as doing or saying something that the hacker wants to convey. The story of a CEO of a UK Energy based company who was deceived through deep fake audio is an example of the kind of damage a deep fake can cause. In this instance, cybercriminals called the U.K. company’s CEO impersonating the CEO of the parent company and managed to deceive him into making an urgent wire transfer of $243,000.

The threat from this kind of AI-driven deep fakes is set to rise further as cybercriminals are taking advantage of remote workers and a distributed workforce which makes their job of manipulation easier. It also enables them to launch more deceptive phishing campaigns via email or business communication platforms which serve as useful delivery mechanisms for deep fakes. As users are more likely to trust organizational communications from known sources, the hackers’ chances of success are much greater. The next frontier for deep fake technology also known as AI that deceives is to defeat biometric authentication. For now, the answer is that it is possible but fails in the face of a ’liveness’ test which is performed to if the biometric traits are from a living person rather than an artificial or lifeless person. Only time will tell if deep fakes can evolve to defeat this.

AI-powered Malware

Conventional malware is designed to be both deceptive and malicious. Introducing AI into malware can make it much more potent and powerful. A malware that is AI-powered can be capable of adapting to existing protection systems and finding ways of bypassing them. There are experts who feel that AI-powered malware will initially be based on the exploitation of known vulnerabilities and misconfigurations which can be detected through security audits and vigilance and prompt action can neutralize the potential threat from materializing. Hackers are meanwhile exploring ways in which AI can be used to remain untraced in target environments for long periods of time and activate triggers that can be voice or facial recognition driven among others to launch full-scale attacks

AI-driven Vulnerability discovery & Automated Hacking

The use of AI and ML has not only made the discovery of vulnerabilities in IT infrastructure, software, and systems easier but has provided ways of understanding the context, developing risk scores for prioritizing risk mitigation actions, and correlating them to vulnerability trends. However, the same information in the wrong hands can lead to exploitation of vulnerabilities in ways by which hackers can inflict maximum knowledge. Today, many hacking tools are easily available that help in finding exploitable weaknesses in computer systems, web applications, servers, and networks. To develop a clear picture of their target networks and devices, hackers can use programs like Shodan to compile a comprehensive list of internet-connected devices, including web servers, surveillance cameras, webcams, and printers. Once all this information is gathered, hackers use automated hacking tools to minimize human efforts and give them the ability to scrutinize large amounts of information which they can then exploit to their advantage. Examples of automated hacking attacks include brute force attacks, credential stuffing, hacker bots, scraping, captcha bypass, etc. These attacks can vary in scale, timing, duration, and frequency and AI is useful in exercising control over these attacks. 

AI-powered botnets

DDoS attacks, which use botnets or zombie machines, often involve the use of AI to control attacks and make them more devastating. The cyberattack against TaskRabbit in 2018 is a prime example where a large botnet controlled by AI was used to perform a massive DDoS attack where 3.75 million users were impacted. The magnitude of the attack was such that the entire site had to be disabled until security could be restored. This further affected an additional 141 million users.

The above modes of attack powered by AI are not the only ones. Hackers have tasted the power of AI and learned to harness it to make their attacks more effective. On the other hand, the induction of AI in the hacker’s arsenal can lead to wide-ranging consequences for businesses, governments, and society at large. There is a thriving market for tools and services which hackers regardless of their technical capability can access and use. AI-based tools are increasingly available to help hackers identify targets and launch attacks in minutes. A greater worry relates to the use of AI in new malware strains that can avoid detection or evade defenses by modifying their behavior based on their learning from detection mechanisms and controls.

A recent variation of a typical botnet attack was that of bot extortion where hackers threatened to launch an SEO attack on CheapAir, a flight price comparison website. When the company refused to pay the money demanded by the hackers, they unleashed a torrent of negative reviews via bots(Automated Cyber Attacks Are the Next Big Threat. Ever Hear of “Review Bombing”? n.d.).

In the future, we can expect hackers to add many use cases involving artificial intelligence/ machine learning to enable cyber-attacks which will be both dramatic in the way they are crafted and massive in scale to cause unprecedented damage on organizations, mission critical systems, and individuals.

Fighting AI with AI

While hackers can use AI for gaining an offensive advantage, equally defenders can use AI to bolster their defenses. The same advantages of speed, analyzing vast amounts of data, and automating various aspects of cybersecurity hold great promise for the defenders. Security experts and solution providers are actively engaged in harnessing the capabilities of AI and incorporating them into security solutions. The rising frequency of cyber threats and attacks leaves organizations (particularly large ones) little choice but to use AI-enabled security tools and products that can enable them to detect and respond quickly to cybersecurity incidents with limited or no human intervention. 

AI for Security Threat Intelligence

The use of threat intelligence in cyberspace draws its origins from its use by militaries around the world to identify and respond to potential security threats. Cyber threat intelligence refers to information that is collated and analyzed by an organization to identify the cyber threats that they are facing or will face in the future. Threat intelligence today involves the analysis of large amounts of data on an ongoing basis which is where the role of AI and machine learning becomes critical. Several research reports support the view that AI is necessary for making the analysis of threats more efficient as well as in taking preventive and preemptive security decisions and actions.

AI for identifying new threats and malicious activities

Traditional antivirus and threat detection software are based mainly on heuristics and virus signatures for detection. This leaves room for hackers to use new malicious codes which can bypass such protection systems. AI and ML models enable threat detection software to gather, process, and use it to form inferences which can lead to better threat detection and predictions. Deep learning which enables learning by example ability can further augment threat detection abilities.

Emails are the preferred method of hackers to deliver malicious links and attachments for launching phishing forays. Surveys indicate that spam accounts for over half of received emails. Much of this could contain malicious links and payloads. AI-enabled email scanning has proved to be extremely useful in identifying phishing emails and other types of threats and given the volumes of emails involved seems the only way not only for identification of malicious links, messages, and attachments, but also flagging suspicious activities and anomalies.

Threats can emanate not only from external sources (hackers), but from internal sources (insiders) as well. AI is increasingly being deployed to understand and analyze user behavior to identify patterns, trends, anomalies, and gain other insights to implement necessary security controls and enable appropriate security actions.

AI for better Endpoint Protection

As we continue to add more devices connected to the Internet every day, securing these endpoint devices has become critical. The concept of defending a well-defined corporate perimeter is over. Instead, we are faced with protecting a large number of devices distributed across geographies, users, and applications. AI-driven endpoint protection ensures that a baseline for endpoint device behavior is established, monitored, and maintained. Deviant behavior from the baseline can be identified and flagged for further actions.

AI for combating Bots

Combatting bot traffic through manual systems is no longer effective when it comes to dealing with the large amount of bot traffic that is generated today. AI and ML can help analyze vast amounts of data traffic as well as distinguish and categorize the same.

While the above represents a few important use cases for AI in bolstering cybersecurity, there are many more. The Capgemini Research Institute in their report (Reinventing Cybersecurity with Artificial Intelligence – Capgemini Worldwide, n.d.) on the role of AI in cybersecurity found that: 

  • The use of AI for cybersecurity is a growing necessity
  • The pace of adoption of AI for cybersecurity is increasing
  • There is a strong business case for using AI for cybersecurity
  • AI enables organizations to respond faster to breaches

Just as the weaponization of AI by hackers was inevitable so is its increasing use by defenders. As networks become larger, distributed, and support diverse devices, data traffic increases manyfold every year and it becomes more difficult to deal with the associated complexities, the use of AI seems like the best way to deal with not only threat and security management but issues such as accountability, transparency, privacy, safety, and fairness.

A peek into the future may show that innovations in AI may lead to AI systems attacking and defending against each other making us bystanders hoping for the best outcome. Before the AI vs AI arms race escalates to this level and we possibly lose complete control over these technologies, we must adopt a hybrid approach that combines the power of AI and human intervention (wherever and whenever) required to identify, analyze, predict, and even resolve new and complex cyber threats.  AI is a great source of innovation in many spheres of our existence. While it can provide immense benefits, in the wrong hands can cause large-scale damage. In times to come, we will see the great game between the hackers and defenders play out with the stakes going up in each round.

What to Do After a Company Data Breach

0

No company wants to experience a data breach, but it can happen, and it happens more often than you might think.

Many cybersecurity measures can be used to prevent data breaches. However, malicious actors will still find ways to infiltrate your network, take advantage of employee passwords, and capitalize on other vulnerabilities.

Below, we’ll cover how consumers should react to data breaches and how companies can protect themselves if they’ve experienced a breach.

Consumer Actions to Take Following a Data Breach

Data breaches have increased due to the COVID-19 pandemic, and it’s not expected that they’ll let up anytime soon. High-profile incidents have been reported, including ransomware, supply chain attacks, and hackers exploiting vulnerabilities.

Now is the time to consider preparing for a cybersecurity breach or data loss, as it’s becoming a prevalent issue across various industries. Below are some steps to take immediately after a data breach if you’re a consumer.

1. Find Out What Data Was Stolen

Many states have laws protecting consumers and requiring businesses to inform their customers about data breaches. Now would be a good time to consider seeking identity theft protection services, especially if sensitive data, such as Social Security numbers or banking information, was exposed during the breach.

Consider speaking with the company that experienced the breach and learning what types of data are compromised. Read the details of any reports from the company explaining the breach so you know what steps to take next.

1. Change Passwords

This is a crucial step to take to protect your information from being stolen or sold on the Dark Web. Even if your passwords were not exposed during a breach, it’s best to assume the worst and change it anyway.

Make sure you’re using capital letters and special characters, and be sure to use unique passwords for all the various online accounts you use. This will make a hacker’s job much more difficult and provide you with strong protection. Many people will use an additional layer of security, known as two-factor authentication, to secure their devices and accounts.

3. Check Financial Records

Finally, you should look into your finances and ensure that no money was stolen or if any charges look suspicious. It’s best to alert your bank that a data breach has occurred and look at your statements to check for these potential fraudulent charges.

You can also request a free credit report, which will show you if any new accounts were opened in your name. It’s wise to be proactive during this time to protect yourself and your information adequately.

These three steps will help you manage your financial situation and ensure your accounts are not compromised. Below, we’ll explore some steps that companies should take after they’ve experienced a data breach.

Steps Companies Should Take After a Breach

No company wants to deal with a data breach in the first place, but time is of the essence to lessen the impact of the breach itself.

1. Be Transparent With Employees and Customers

It’s recommended that you adopt a spirit of transparency when a breach occurs. Letting internal employees and your customers know that their data could be compromised will help them take steps to lessen the impact of the breach. Your business reputation could be at stake if you’re not adamant about sharing details of the breach.

Suppose you decide to take an alternative approach and keep breaches a secret. In that case, it could lead to lawsuits, loss of employees, or backlash from customers who had their data stolen or even sold on the Dark Web. This is why it’s vital to be open and honest about the breach that occurred.

2. Secure Systems and Identify Where the Breach Occurred

Preventing more data from being exposed should be paramount for all companies. Be sure to secure your systems, identify what data may have been disclosed, and investigate the circumstances of the breach. Keep track of all the breach details and communicate with your IT department.

It’s wise to change access codes and passwords to prevent further intrusion. Also, consider shutting down remote access for your systems out of an abundance of caution.

3. Implement New Cybersecurity Measures to Fill Gaps

Because a breach occurred, you now know the vulnerabilities and weaknesses in your existing cybersecurity measures. It would help if you implemented new ways to protect against malicious actors.

Now is the time to focus on rebuilding, restructuring, or strengthening your existing cybersecurity practices to prevent future incidents. Patch up the holes in your systems and make a hacker’s job more difficult using the best cybersecurity practices.

4. Build a Disaster Recovery Plan

While many companies take precautionary measures with their cybersecurity, these breaches still happen, and being prepared can help make the breach less likely to harm customers. Following a data breach, the last step you should take is to build a disaster recovery plan.

Here are some steps to take when building a disaster recovery plan:

● Identify potential threats

● Assess your downtime tolerance

● Find viable solutions to use in case of a breach

● Train employees about procedures and what to expect if a breach occurs

Both customers and companies need to recognize the importance of preparing for a potential data breach. Preparedness plays a significant role in lessening the impact of a breach.

Take the Proper Steps Following a Data Breach

If you’ve realized your company has suffered a data breach, some steps must be taken to lessen the impact and damage the breach causes. It’s possible that, depending on your specific case, you may need to take alternate measures to protect your data. However, customers and companies can benefit from following the outlined steps listed above.

VPN vs Encryption – Awesome Complete Analysis

0

The use of VPN vs Encryption is an important topic due to the increasingly remote workforce. For example, at least 4.7 million people in the US prefer working remotely, and Global Workplace Analytics estimates 25-30% of employees worldwide will be remote-based by the end of 2021.

More than 36 million Americans will be working remotely. That said, whether employees are working remotely from home, the airport, or a local coffee shop, they require secure access and connection to organizational networks and resources. In most cases, they may connect to company networks using their home Wi-Fi or local networks, whose security shortcomings leave little to be desired.

For example, connecting mobile devices to a public wireless network connection and transmitting sensitive information like credit card numbers exposes online security risks, such as interception and eavesdropping. In addition, attackers can exploit security weaknesses, such as misconfigured Wi-Fi routers, weak password security, and outdated router firmware to intercept and steal sensitive data. With experts predicting that the number of public Wi-Fi hotspots may exceed 628 million by 2023, hackers will be looking to exploit increasing vulnerabilities. Some of the top wireless network threats are:

  1. Personal data interception: Attackers can snoop around wireless networks to intercept web browser traffic/online activity and exfiltrate personal information, such as credit card information, IP addresses, to a remote server. A 2021 report forecasts that theft of personal data will affect at least 250/ million individuals, although more than 310 million people were data theft victims in 2020. Due to this, most organizations urge employees to use a virtual private network (VPN) when establishing remote access to ensure online privacy.
  2. Increased attacks on companies: Some employees may use a public network to send sensitive emails without establishing a VPN server connection. The network could be a rogue access point under a hacker’s control. Most organizations have implemented various security measures to protect internal networks from attacks, but connecting to the networks using insecure and unencrypted public Wi-Fi networks may result in cyberattacks.
  3. Man-in-the-middle attacks: These are common techniques attackers use to impersonate to eavesdrop on user connections and communications. Essentially, attackers position themselves between a user and a server, enabling them to capture all transmitted information and network traffic. In 2020, man-in-the-middle attackers contributed 16% of all reported network attacks, underscoring the essence of implementing recommended network security measures like VPN services and encryption mechanisms.
  4. Network snooping: Network snooping is one of the popular methods that man-in-the-middle attackers use to monitor and intercept outgoing and incoming network traffic. The attacks are relatively easy to launch and execute since adversaries require scanning tools, such as Wireshark, to scan for network security loopholes and exploit them to snoop transmitted traffic. As such, adversaries can easily see and intercept sensitive information, including credit card information, passwords, and crucial business data.

Securing Your Network with Encryption

Numerous organizations constantly suffer unending network security flaws and breaches, threatening the confidentiality, availability, and integrity of essential network resources, applications, and data. Suffice to say, there is no single entity that can achieve the perfect cybersecurity posture to protect data from unwanted access, ward of attacks, and prevent data breaches entirely. In this case, organizational cybersecurity teams and employees must take stringent security actions to protect sensitive information and ensure robust network security.

Securing network communications requires the implementation of recommended security controls, among them being HTTPS encryption, SSL encryption, and consistent use of VPN provider technologies. In reality, strong network security calls for deploying and configuring encryption approaches and VPN services from proven VPN vendors. Some of the vital network security measures to consider include:

1.     HTTPS Encryption

HTTPS encryption protects network communications and information from unauthorized access, tampering, and unauthorized modification by encrypting the HTTP connections. As a result, accessing websites with HTTPS encryption implies that cyber adversaries are less likely to access, read, or modify the contents transmitted between your browser and a web server. However, users are not responsible and do not have control over HTTPS encryption since a website operator is responsible for setting up and configuring a secure HTTPS connection.

Users should note that not all sites contain the essential HTTPS encryption. Websites whose URLs begin with HTTP only mean that users communicate with a web server via an insecure connection since it does not encrypt the transmitted traffic. Accessing websites lacking HTTPS encryption poses significant security threats, such as man-in-the-middle attacks, where hackers can intercept and modify communicated data. Worse, accessing sites without HTTPS encryption can permit attackers to inject spyware and malware on your computer, which may cause an entire organization to be vulnerable to multiple attacks.

For example, one of the greatest threats of accessing websites lacking HTTPS encryption is injection attacks, where hackers can inject HTML and JavaScript payloads into the unencrypted network traffic. Once the payloads execute, sophisticated threat actors may launch devastating attacks, including Denial of Service (DoS) attacks, preventing victim companies from continuing daily business activities. However, it is worth noting that an HTTPS encryption protocol alone does secure your network connections adequately. Other internet activities also require unique encryption mechanisms.

2.     Encrypting Wireless Routers

Wireless connections are susceptible to numerous online attacks since companies don’t require a physical connection to their networks. Attackers can thus target Wi-Fi networks to steal data remotely. For example, an adversary can access and intercept wireless network communications using readily available hacking tools from the parking lot. Luckily, it is easy to secure a wireless network by encrypting a Wi-Fi router.

The highest recommended router encryption method is the WAP2 encryption standard. Companies can access the WAP2 encryption standard by login into the Wi-Fi router’s page and enabling it in the router settings. Turning on the WAP2 encryption standard secures a wireless network by encrypting data transmitted between a wireless device and the Wi-Fi network. Wireless router encryption prevents attackers from eavesdropping on the network traffic transmitted via a Wi-Fi connection, preventing unauthorized access to sensitive information.

In addition, encrypting a wireless router ensures network integrity by enabling an authentication protocol to prevent malicious users from connecting. Unencrypted routers can allow unauthorized users to connect to a wireless network, intercept, and exfiltrate confidential data. Also, malicious actors can connect to unencrypted Wi-Fi networks and use them for illegal activities. Unauthorized access to a network not only poses a security risk but also threatens network performance and speed.

3.     SSL/TLS Encryption

SSL/TLS is a recommended network encryption standard that ensures secure communication between a web server and a client. SSL (Secure Sockets Layer) is an older version than TLS (Transport Layer Security), which experts consider more secure. However, they serve the same purpose – encrypt network traffic to protect data transmitted through an internet or computer network.

Implementing SSL/TLS encryption prevents internet service providers and adversarial actors from viewing, accessing, or tampering with information shared between two nodes – often between an app or web server and a web browser. Website owners and administrators have the prerogative to implement SSL/TLS encryption to ensure an encrypted secure connection for the secure exchange of sensitive information, including payment data, passwords, and personal information.

Specifically, SSL/TLS utilizes symmetric and asymmetric encryption to preserve the integrity and confidentiality of data in transit. Asymmetric encryption provides a secure session when a client requests information from a server. Similarly, symmetric encryption also ensures a secure session to ensure the security of transmitted data. Companies require to purchase and implement an SSL/TLS certificate for their domains and web servers to use the SSL/TLS encryption standards. Upon the installation of the SSL/TLS certificate, a client can communicate with a server securely, as demonstrated in the following steps:

  1. The client uses a secure HTTPS URL to contact and connect to a server.
  2. Once the server receives a connection request, it uses a public key to send its certificate to the client.
  3. The client uses a Trusted Root Certification Authority to verify the server’s certificate to ascertain that it is legitimate.
  4. The server and the client then negotiate a strong encryption type that they both support.
  5. The client then encrypts a secret key, also called the session key, using the server’s public key, which is then sent back to the server.
  6. The server receives the public key and uses its private key to decrypt the traffic or communication received from the client.
  7. SSL/TLS uses symmetric encryption (session key) to encrypt data and decrypt it as it is exchanged between the server and the client.

A complete handshake negotiation permits the server and client to use HTTPS (SSL/TLS over HTTP) to encrypt all transmitted data. You can validate that a website is SSL/TLS enabled by checking if it has a lock icon on the browser’s address bar. After a user stops accessing a website, the server and client discard their encryption keys and negotiate a new handshake once a user tries to access a website on the next visit. SSL/TLS encryption enhances security by ensuring the integrity and confidentiality of transmitted data. Nevertheless, cybercriminals can also use encryption to inject malicious payloads. Therefore, it is vital to implement inspection tools like IDS/IPS, secure web gateways, and next-generation firewalls to ensure effective SSL/TLS decryption.

Securing Your Network Using a VPN vs Encryption

HTTPS, SSL/TLS, and router encryption provide important functionalities protecting users’ online activities. Although most users grapple with which is better between network encryption and the use of a VPN service, they are great security tools for securing online communications. In addition, you can use them to complement each other for enhanced security and a more secure browsing experience.

While encryption ensures the integrity and confidentiality of online activities by encrypting network traffic and communications to prevent unauthorized access, a VPN service hides a user’s online identity. As a result, VPN protocols hide data and user activities from snooping governments, internet service providers, and malicious cyber adversaries. In particular, a VPN provides an encrypted secure tunnel between devices like mobile devices, laptops, tablets, desktop computers, and laptops and insecure networks like public Wi-Fis.

Using a VPN requires organizations to acquire VPN clients for employees from a trusted virtual private network provider and install them in devices used to communicate sensitive information. You can also opt to use free VPNs to achieve the same goals but with limited features and capabilities.

Most VPN tools are free and easily accessible from various internet services and internet providers. However, companies should consider commercial VPN solutions that provide advanced services. For example, a commercial VPN supports connectivity to multiple servers from various parts of the world. More importantly, commercial VPNs tunnel all communications and internet traffic transmitted between servers and user devices to prevent governments and internet service provider from tracking it.

Additionally, commercial VPNs mask users’ real IP addresses with those corresponding to a particular server in a given location to give the impression that users are accessing the internet from a different location. It is an essential feature that protects and hides a user’s privacy and area, which is vital in protecting against attacks. For example, a user may be browsing the internet from the USA, but a VPN can tunnel the network traffic to appear as if the user is located in Germany. The benefits of using a VPN to protect the online identity and privacy include:

  • Bypassing geo-restrictions: VPN tools come in handy for users attempting to access various services that can only be accessed from a specific location. For instance, some content creators may restrict music or television content to a particular geographical area, implying that only users in that location can access and use it. In addition, websites utilize geo-blocking to restrict access from the blocked region. In this case, an individual in a blocked location can use a VPN solution to connect to a server in a specific region to access the content. A VPN software hides an IP address such that a user can connect and access resources in a restricted area.
  • Protect online privacy and identity: Technological advancements permit everyone, including malicious cyber actors, internet service providers, and governments, to monitor and track a user’s online activities. Thus, multiple users are exposed to privacy breach risks and attacks, such as identity theft attacks. Luckily, a VPN can protect and preserve online identities and ensure privacy by ensuring user integrity and confidentiality. VPN programs hide and encrypt online traffic through an encrypted VPN tunnel to prevent harmful actors from breaching user identities and privacy. Thus, it makes it difficult for search engines, ISPs, and governments to track and monitor your online activities.
  • Provide secure online connections: VPNs play a vital role in providing a safe online link to ensure users can communicate securely. As a result, a VPN is a handy tool for employees and organizations that prefer remote or hybrid working strategies. Also, VPNs can assist users in bypassing firewall restrictions that prevent them from connecting to a specific service. For instance, countries like China have a large firewall that prevents individuals from using mission-critical services like social media platforms. Implementing a VPN solution enables users to bypass the firewall restrictions and connect to the services. Similarly, as most individuals often connect to unsecured public networks for critical reasons like working remotely and online shopping, a VPN tool encrypts online traffic to protect valuable information. These include login credentials, credit card details, and mission-critical organizational information.

VPN vs Encryption – Similarities

A VPN is a third-party software solution that helps users enhance online privacy and protect their identities when an insecure network. On the other hand, HTTPS encryption is an internet protocol that ensures the secure transmission of sensitive data via the internet by providing a safe, encrypted connection. Third parties offer VPN solutions that do not require HTTPS encryption to function and vice versa, but they can complement each other. The primary similarities and differences include:

  • They both encrypt online communications, but a VPN encrypts a whole device, whereas HTTPS encryption encrypts connections between a browser and a server.
  • They both cannot protect against malware attacks, and users require additional security tools to prevent attacks when browsing through insecure networks.
  • VPN provides additional functionalities, such as hiding a user’s online activities and browsing history, while HTPPS encryption only encodes confidential data that users submit on a web server.
  • Users can control and configure a VPN solution to achieve greater online security. Still, users don’t have control over HTTPS since the website owner or administrator is responsible for managing the SSL certificate.

VPN vs Encryption – Which is Better?

Encryption tools and VPN solutions provide different functionalities to prevent unauthorized malicious entities from accessing sensitive network information. Therefore, using both adds enhanced security to online communications to ensure user privacy and prevent unwanted access to sensitive information. However, it is vital to note that HTTPS encryption must be enabled on a website or browser, whereas a VPN solution works anytime once installed. Also, HTTPS encryption may be vulnerable to attacks like root certificate attacks, whereas VPN protects against different attacks. Besides, while HTTPS is only used for end-to-end encryption, VPN encrypts an entire device.

The Role of AI in Cybersecurity

The cybersecurity market can be considered quite mature on a global scale. Yet, the cyber-attack landscape continues to grow, coming up with more intricate intrusion methods. In this regard, proactive cyber defense becomes extremely important for businesses to keep their cybersecurity posture 24/7 in real-time. That’s why organizations are increasingly looking for innovative ways to boost their cyber defense capabilities. For example, the Threat Detection Marketplace by SOC Prime helps to defend against the latest digital attacks easier, faster, and more efficiently through the proactive delivery of custom detection algorithms that can be used across multiple security solutions.

Another example is the growing tendency to adopt Artificial Intelligence (AI) which is widely discussed as the key factor leveraging the Fourth Industrial Revolution (Industry 4.0). AI can play a significant role in intelligent cybersecurity services, helping to detect and mitigate the newest threats.

Capgemini Research Institute published a report called Reinventing Cybersecurity with Artificial Intelligence. They strongly suggest that implementing AI in cybersecurity is urgent for modern enterprises to improve cyber analysis and respond faster to breaches. Also, survey respondents believe that using AI is crucial because attackers have begun to practice AI for malicious activities. 

While AI is a relatively new set of technologies, the development of working solutions can seem challenging. Let’s review some of the key concepts behind the role of AI in cybersecurity and briefly discuss the most popular techniques.

AI in Cybersecurity – Key Things to Know

AI is one of the most innovative technologies that can elevate the whole cybersecurity ecosystem to a new level. However, it is necessary to understand some critical concepts before considering a defined AI action plan. Below are a few overarching ideas about AI in cybersecurity that are widely discussed today.

AI-Powered Cybersecurity Starts From Detection

Cyber-attack sophistication increases exponentially, and it is necessary to establish effective detection approaches that can identify the newest threats as early as possible. SOC professionals have to deal with massive amounts of raw data and the growing number of unknown threats. That’s where AI comes in.

AI technologies can spot anomalies that can cause massive damage, yet they are often detected only after the infiltration. They can also mitigate and automate responses to a flow of threats that happened before and can be easily identified. This approach, if employed, saves human resources and expenses for data maintenance within a cybersecurity department of a company.

AI is Not Just a Single Technology

There is no single approach to AI in cybersecurity, as well as among other industries. Moreover, it’s not just one piece of software that can either be used or not. Instead, AI is a complex term that might refer to a whole range of various techniques and approaches.

The AI sophistication level that cybersecurity professionals can potentially employ depends on the variety of algorithms used and their successful intersection. For example, clustering techniques, rule-based approaches, survival analysis, and inductive logic programming could be combined with neural networks and deep learning. Although, the greater amount of techniques is not always the best solution. Researchers suggest identifying a general toolkit that can process the tasks with the help of data reduction, data mining, and analytics.

EU Issued Regulations

The European Commission issued the “Artificial Intelligence Act” on April 21, 2021. The draft regulation includes a set of horizontal rules for AI-related products and services within the territory of the EU. A prominent place in this act belongs to a “product safety framework”. Namely, the European Commission will establish a procedure of market entrance and certification for high-risk AI systems. 

Provisions of this law foster ad hoc protection for such systems, concerning a secure development lifecycle in high-quality datasets, transparency, human oversight, and cybersecurity. Namely, when it comes to cybersecurity, the law stipulates that the measures for preventing and mitigating attacks should encompass the newest threats to AI in particular. For example, those could be data poisoning (attempts to manipulate the training dataset inputs), model flaws, or adversarial examples, causing the trained neural networks to make mistakes.

In general, this new law represents the beginning of a new period in the global economy where companies will have to ensure compliance with AI security regulations before introducing new technological approaches to the international market. Cybersecurity of high-risk AI systems will play a crucial role in the certification procedure once it’s settled. So, while the developers’ community tests new algorithms in AI-based cybersecurity, it looks like they will have to make sure that AI on both ends (SOCs and the systems they defend) complies with regulations.

An Overview of AI Techniques in Cybersecurity

AI techniques have been widely used in scientific research regarding cybersecurity. However, there is little evidence of the application of AI in major systems like SIEM, SOAR, EDR, XDR, and other security solutions. For now, it is efficient to use online tools such as Uncoder.IO for instant translations of threat detection content and its fast integration into a variety of interfaces. Yet with AI, there is more room to grow.

Computer scientists have been testing AI methods like machine learning, deep learning, natural language processing, knowledge representation and reasoning, the concept of knowledge, or rule-based expert systems. These methods can be applied to threat detection, cyber-attack prediction, access control management, and more.  

Some of the AI techniques applied in cybersecurity were highlighted by Springer research:

● Clustering – for analyzing intrusion detection data

● Support vector machines – for classifying and analyzing information on attacks, threats, DDoS

● K-nearest neighbor – for intrusion detection and reducing the false positives

● Genetic algorithm – for the prevention of cyberterrorism and intrusion detection 

● Reinforcement learning, hidden Markov model, rule-based approach, random forests, naive Bayes, decision trees, adaptive boosting – for intrusion detection

● Neural network and deep learning – for detecting threats, attack and malware traffic classification

● Natural language processing – for semantic, syntactic, lexical analysis for automated research of the latest threats

● Fuzzy logic-based rules – for solving complex cybersecurity issues

Conclusion

The globalization of businesses leads to an exponential increase of networks’ scale and complexity, making it harder to track the data flow and detect cyber threats. AI can be used to meet the need to constantly monitor vast amounts of data and effectively respond to threats in real-time.

Also, AI algorithms can learn to combine various detection signals, explore non-linear logical relations, and come up with the best decision at the right moment in time. Meanwhile, behavior analysis of malware or ransomware attacks can also become more sophisticated and even predict the threats before they happen.

Top 10 Cybersecurity Challenges for 2023

0

By Ajay Singh, Author of CyberStrong: A Primer on Cyber Risk Management for Business Managers

As we come to terms with the record-breaking statistics and deal with the devastating impact of cyber-attacks and data breaches in the year gone by, we now need to identify, assess, and prioritize the cybersecurity challenges that are ahead of us in 2022. While the focus of the past year (or two) has been on fighting the pandemic, cybersecurity has been another serious threat that individuals, businesses, and governments have had to deal with. The year 2021 was bookended with two of potentially the most devastating cyber threats- SolarWinds and the Log4J vulnerabilities that shook the very foundations of cybersecurity plans and programs. Even though the two incidents from a technological standpoint are somewhat different, both provided warnings of the scale and widespread implications of future cyber-attacks.

The past year has seen unprecedented cyber-attacks in terms of nature and scope- ransomware (CAN Financial, Acer, critical infrastructure (The Oldsmar Florida Water Supply attack, The Colonial Pipeline Attack), data breaches (Bombardier, Domino’s India), and the aforesaid supply chain attacks are just a few. Closer analysis of cyber-attacks in 2021 reveals that hackers have upped their game in terms of tools that they use and their capability to launch targeted attacks and play the waiting game. 

Trend Micro partnered with the Ponemon Institute to investigate the level of cyber risk across organizations and create a Cyber Risk Index (CRI). The index, which is refreshed regularly, measures the gap between an organization’s current security posture and its likelihood of being attacked. Their index currently shows ‘elevated risk’ at the global level. As we step into 2022, this means that governments, organizational leadership, and individuals need to brace themselves for more significant challenges in terms of cybersecurity.

Cybersecurity is full of challenges, some new, some old but continuing, and some emerging. To be safe and secure, we need to deal with them all but prioritize and mitigate the significant risks in terms of severity of consequences and likelihood of the risks materializing. Across organizations and geographies, here are my Top 10 Cybersecurity challenges for 2022.

Supply chain attacks have been a potential cyber threat for some time now, but 2021 saw massive growth in these attacks. Hackers demonstrated the kind of severe damage they could cause by leveraging vulnerabilities in the software supply chain, impacting thousands of organizations. The SolarWinds and Kaseya attacks indicated that hackers could launch different types of cyber-attacks on downstream businesses using their software and services by successfully targeting software vendors. While third-party software is fraught with certain risks, a certain level of trust existed based on the vendor’s pedigree and commitment to cybersecurity. Organizations can no longer blindly trust third-party applications, open-source software, and application interfaces that they use to ensure their security. They must proactively examine their Software Bill of Materials (SBOMs) and take steps to mitigate associated risks.

 2. Ransomware attacks remain a potent threat in 2022

According to the X-Force Threat Intelligence Report, ransomware was the number one threat in 2021, comprising 23% of all cyber-attacks. High-profile ransomware attacks in 2021 included targets like the Colonial Pipeline, JBS Foods, which not only disrupted the operations of the respective companies but impacted the lives of everyday people who had to put up with gas and meat shortages. No industry or firm, regardless of size, is safe from ransomware attacks. Kia Motors, the Korean automobile giant, and Acer, the Taiwanese computer company, faced ransomware attacks in 2021. Even the Washington DC Police department was not spared as hackers locked up data on informants, gangs, and employee data and demanded a ransom of US$ 4 million to prevent data leaks. Keeping ransomware out by implementing measures such as ready-to-use back-ups, encrypting important data, data exfiltration monitoring, early detection, and response through software, timely updating of software, implementing zero trust strategies, and training employees are key in preventing and mitigating risks from these attacks. For organizations facing ransomware attacks, ransom payments may also come under the regulatory ambit, and hence robust prevention measures must be put in place. If your organization doesn’t have a plan to deal with a ransomware attack, this is the time to implement one and enhance your security posture.

3. The rise of edge computing throws up new security challenges.

The concept of edge computing is fast gaining ground. According to Ericsson, by 2023, 5G will make up around one-fifth of all mobile data traffic, where 25% of the use-cases will depend on edge computing capabilities. Edge computing is about gathering, processing, and analyzing data generated by IoT devices at the network rather than transporting it to centralized computing resources. While this provides excellent opportunities for innovation, it also opens IT infrastructure to new security issues. The problem primarily stems from the non-standardization of IoT hardware protocols combined with the diversity of use cases which can throw up several security challenges, including ensuring proper configuration of devices and administering timely updates. The integration and security management related to legacy IoT devices pose another challenge. The challenge from a security perspective is further exacerbated by the fact that not all the edge computing platforms being deployed are readily accessible as they are distributed across enterprise networks making remote management even more difficult. Hence, edge computing shares the same security challenges as the IoT devices, which are usually small, often not built with security in mind, and may not even be capable of receiving updates. All these issues, if not addressed, can provide hackers with easy entry points and ways to gain access to core systems to which the edge devices connect to launch deadly cyber-attacks. Regardless of the type of edge computing platform, organizations are deploying zero-trust IT architectures to secure the entire distributed computing environment better and meet the security challenges of edge computing. As organizations increasingly turn to remote working, employees become the edge. To prevent endpoint attacks and address the need for better-automated threat prevention, detection, and remediation, concepts such as Endpoint Detection & Response (EDR), which were initially deployed, have evolved further in the form of Extended Detection & Response (XDR) and secure access service edge (SASE) solutions.

4. Crisis of trust-privacy and identity management challenges

Every data breach, exploitation/misuse, or illegitimate use of personal data results in an erosion of trust. In recent times, issues of digital trust such as identity theft by cybercriminals through large-scale data breaches, the alleged exploitation of data entrusted to Big Tech companies for-profit, and the misuse of citizen data by Government authorities have been a matter of public debate. Even as the debate rages on finding the right balance between privacy, exploitation, and misuse, all parties to the debate have their concerns. Despite efforts made, a fair, transparent, and equitable regime that encompasses privacy, data protection, and accountability remains unresolved. What has this got to do with cybersecurity, you may well ask? Privacy protection and cybersecurity have been historically considered and handled in different organizational silos. Still, as more and more personal information is processed or stored online, organizations practice effective cybersecurity that can secure data and safeguard personal information. Managing identities across an organization and in the current context across economic, social, and political contexts have become central to online safety and security. Beyond the use of simple strategies like multi-factor authorization, the use of biometrics which represents some basic security approaches, there are bigger challenges like unification (or non-duplication) of identity information (within and beyond organizational boundaries), preventing the misuse of personal information through Artificial Intelligence, Deep Fakes, perpetrating financial frauds, etc. The launch of the metaverse and its related security challenges will need to be addressed early. The metaverse promises a new in-depth virtual experience that is expected to transform the way we work, live, play, and interact with each other. Several technologies which are still evolving, such as virtual and augmented reality, smarter digital devices, and next-generation social platforms, will bring forth several security concerns from device management to personal data privacy issues. The time for convergence of Privacy and Cybersecurity is now to make our digital lives more secure and safe. We cannot afford any further erosion of digital trust to embrace the benefits of newer technology. There will be a huge price to pay. While regulatory frameworks to address security challenges evolve, in 2022, it will require technology companies and organizations to follow ethical considerations taking responsibility and accountability for privacy, data protection, and cybersecurity. Indeed, this is a huge ask.

5. Never seen before 5G Vulnerabilities and mobile malware.

The year 2022 will see 5G rollouts on a large scale in every region of the world, enabling connectivity for appliances, machines, objects, and devices at speeds reaching 10 gigabits per second – up to 100 times faster than 4G networks. For users, such high-speed access will provide great digital experiences. For applications, services, and content providers, this allows the opportunity to develop a whole new generation of feature-rich functionality that users are waiting to lap up. While the opportunities and possibilities offered by 5G technologies are tremendous, they come with a new set of vulnerabilities that hacker groups are waiting to exploit. 5G networks have one big difference compared to previous generations of networks- moving away from centralized, hardware-based switching to distributed, software-defined digital routing. With software controlling the network, cyber vulnerabilities are inherently more complicated and require a rethink of cybersecurity strategies.

A research study by Strategy Analytics says that half the world’s entire population now owns a smartphone as of June 2021. This means that around 4 billion people use a smartphone today. Other reports suggest that by 2021, there will be 35 billion IoT devices connected to the Internet. IoT is about to experience another boost by the 5G technology due to its inherent higher speed capabilities, which enables faster communication and sharing of information. Initiatives in smart cities, smart buildings, smart cars, and similar such efforts to reduce carbon emissions will lead to a proliferation of smart devices being connected to the Internet. Overall, this will result in a quantum leap in the attack surface and could become a hacker’s paradise, warn cybersecurity experts. 

Adding to security concerns could be ‘never-seen-before, malware’ and cyber-attacks using botnets of a size and scale that we have never experienced.

6. Watch out for a sharp increase in attacks on Critical Infrastructure.

A recent research study by Skybox Security found that 83% of organizations suffered an operational technology (OT) cybersecurity breach in the prior 36 months. Critical infrastructure is largely dependent on Operational Technology (OT) to deliver essential services for the public’s health, safety, security, or economic well-being and the effective functioning of government. In 2021, hackers actively perpetrated disruptive attacks on energy grids, water supply systems, and gas pipelines. They are not only aware of lacunae in OT systems which are mostly legacy systems, but that ransomware attacks on critical infrastructure can be lucrative propositions. Reports suggest that Colonial Pipeline company paid the $5 million ransom one day after cybercriminals hacked its IT network, which crippled fuel deliveries up and down the East Coast. 

Even as regulators enhance security compliance standards around critical infrastructure, weaknesses like legacy hardware, lack of unified control across IT and OT platforms, software supply chain vulnerabilities, and investments required for upgrading OT platforms are issues that will continue to bother us during 2022. Smaller companies in power generation and other utilities are more likely to be targeted and will feel the pressure to raise their security standards and processes beyond basic compliances.

7. Misconfiguration and updating- a challenge that continues to haunt us

On the face of it, this appears to be a simple problem that must be addressed by security and IT teams. A study by Productiv, a provider of SaaS management solutions, indicates that the average company has 254 applications. Updates are critical for all technology, but especially IoT devices because they’re often located in the field, on the factory floor, or in hospitals. Employees working from home make this task more complicated. When you consider these facts, what emerges is that this challenge is a far cry from managing updates on a few servers and desktops located within four walls of an organization. It is not an issue that is going away soon if not addressed but will only grow in size, scale and complexity. This security challenge is not new and has persisted over the years, as can be seen from the following statistics:

The Voke Media survey of 2016 observed that 80% of companies who had a data breach or a failed audit could have prevented it by patching on time or doing configuration updates. It further found that even after a breach, or failed audit, nearly half of companies (46%) took longer than ten days to remedy the situation and apply patches because deploying updates in the entire organization can be complex. The situation showed no improvement as an Edgescan study in 2018 found that the average time for organizations to close a discovered vulnerability (caused by unpatched software and apps) was 67 days. As it stands today, the challenge related to properly configuring systems (including cloud configurations) and timely updates is still more daunting, with most organizations having little or no visibility of the applications and devices that connect to their enterprise network. The only way to meet this security challenge is to maintain an up-to-date inventory of applications and devices, implement patch management processes, and use automated patch management tools. 

8. Beware-The weaponization of deep fakes

Human beings are hardwired into trusting their five senses and acting on them. However, Seeing is believing’ is passe as far as the Internet is concerned, and also, hearing on which we rely so much can no longer be blindly trusted. Deep Fake technology advancements today enable the creation of such realistic images and sounds that anyone, no matter how tech-savvy, can be fooled. Hackers are becoming adept at using deep fake technologies to launch phishing and cyber-attacks to meet specific objectives or target particular persons. In 2022, organizations need to be highly vigilant and aware of deepfake-based frauds of various kinds. 

Last year, The Federal Bureau of Investigation had issued a warning regarding the rising threat from deep fakes describing it as “the broad spectrum of generated or manipulated digital content, which includes images, video, audio, and text.” In 2022, this threat is likely to get more potent, and the only counter to it seems to be to ‘verify’ then ‘trust.’ Any critical piece of information that involves or is leading towards a financial transaction or some other critical action must be verified multiple times or offline before it is acted upon. More than technology, the challenge is for human beings to be aware and vigilant to thwart such cyber-attack attempts.

9. The Human Factor- Phishing and Social Engineering Remain Major Challenges

According to the Human Hacking Report published by SlashNext, there was a 270% increase in social engineering threats found in 2021. Phishing attacks rose by 51% over the previous year’s record-breaking. This indicates that social engineering continues to be the preferred method for hackers. It enables them to steal the necessary credentials to cause more significant harm to individuals and organizations. The use of automation by cybercriminals to perpetuate their human hacking and their various social engineering schemes have given their threats an added dimension making them more potent. Besides specific cybersecurity measures to ward off automated attacks, higher awareness and vigilance are required to meet this challenge. Regular awareness, threat simulation exercises, training regarding various forms of threats and scams is key to engaging all employees in cybersecurity and effectively responding to this No.1 cyber threat.

10. Remote/Hybrid working here to stay

The Next Great Disruption Is Hybrid Work—Are We Ready? asks Microsoft in a recent article. At the same time, a Unisys report suggests that while 61% of hybrid and remote workers feel primarily responsible for maintaining their digital security, only 21% are aware of sophisticated online threats. Remote working started as an employee-friendly initiative in the pre-covid era and became necessary as the pandemic spread worldwide. We have since moved to work from anywhere at anytime environment. This has created many security-related challenges for organizations. These challenges include a flexible corporate network perimeter, security issues in managing endpoints and cloud applications, lack of security practices and discipline that existed in office environments, insecure home networks, and other factors that undermine defenses. These are sources of risk to corporate systems and security and have been known for some time now. However, organizations must recognize that the immediate and ad hoc measures they have taken to ensure security from remote working risks will be inadequate in the long run and require a change in strategy and approach. Adoption of strategies like zero trust, implementing EDR & XDR, enhancing cybersecurity awareness among employees, and setting up a baseline for online conduct when connecting to enterprise systems are still measures that are a long way off for many organizations.  

Organizations face numerous security challenges, but addressing key challenges can significantly reduce risks and mitigate any damage in the face of a cyber-attack or data breach. Security is a moving target, but the time to make incremental changes and investments in cybersecurity is over. We have reached a stage where a rethink of enterprise security considerations, controls, and architectures is required, and 2022 seems to be the year when we must recognize the new challenges in terms of cybersecurity and initiate short-term and long-term actions to secure our systems and ourselves from the devastating consequences of a cyber-attack or data breach.

Security in the Crypto Space

Introduction

From being leisure for Silicon Valley intellectuals and IT experts, cryptocurrency has become a well-liked recreation for regular people. Due to growing interest, an effort has been made to increase security on cryptocurrency platforms.

Expectation of Security

People expect enhanced security measures to keep our data safe and secure from prying eyes as our lives become increasingly online. While no online experience can ever be completely safe, high data privacy and security level may be attained.

People interested in dipping their toes into the crypto waters share these security worries. The learning curve for many newbies to crypto investment may be severe. Individuals concerned about a crypto platform’s degree of security may be hesitant to use it.

Service providers must establish a degree of trust to put consumers just starting in crypto at rest.

Blockchain Technology Security

Cybercriminals, hackers, and fraudsters know no limitations when attempting to separate a person from their money, and criminal curiosity about digital assets is no different.

Blockchain technology, which is used to record financial transactions without the intervention of a third party, is the foundation of cryptocurrency. Blockchain technology deters hackers and other criminal actors from accessing personal information or stealing digital assets.

The encrypted data put into the blockchain is permanent and immutable. Even if someone managed to change any of the information kept there, the other records would be unaffected since the network would reject a malicious transaction if over 50% of network users do not agree. As a result, blockchain technology ensures that cryptocurrencies are safe.

This security provided by the blockchain does not imply that crypto investors should ultimately depend on it and abdicate any human responsibility for safeguarding their data or digital currency. The available tools and the user must work together to ensure security and data protection.

The security holes in the blockchain were revealed by a 2018 research that Mashael Al Sabah, a cybersecurity specialist at the Qatar Computing Research Institute, co-authored. The study showed that it was possible to scan publicly accessible Bitcoin blockchain data and social media profiles to determine the real identities of cryptocurrency investors and account holders.

While blockchain technology is not without flaws, it has the potential to revolutionize data and financial data security.

Security Is a Personal Responsibility

People are more aware of the necessity of safeguarding their personal information and financial assets.

Their initial apprehension to test cryptocurrencies might be due to a lack of knowledge of the currency’s regulations. People better understand the security procedures in place to secure their money when they use traditional banking. When it comes to cryptocurrencies, the waters are a little murky.

Most typical Internet users are aware of various security mechanisms used by cryptocurrency sites, such as two-factor authentication. This familiarity may lead to a false sense of security in persons new to crypto. When it comes to entering the crypto world, personal responsibility is still required. Users can protect themselves by doing the following:

●    Don’t leave crypto on local storage – Backing up crypto on a local, private storage device like a hard drive, computer desktop, or phone leaves it vulnerable to loss or theft.

●    Passwords mustn’t be lost or forgotten – Remembering or preserving passwords may seem obvious, but consider the case of Stefan Thomas. He owned 7,000 Bitcoins (worth around $300 million at the time of writing) but lost access to his digital wealth after forgetting the password to his IronKey USB drive where he kept his Bitcoin. Be careful and don’t follow these examples, and only at CEX.IO can you buy crypto with prepaid card.

●    Using safe crypto platforms – Many crypto platforms or businesses accept cryptocurrency payments or provide cryptocurrency cashback. The user must do due diligence on any platform they use for bitcoin exchanges or transactions. Cryptosystems that have been tried, tested, and confirmed to be legitimate and secure should be preferred by users.

Crypto Security Standard

Cryptocurrency platforms that wish to be regarded as significant participants in the crypto game must allay crypto investors’ fears by taking the required steps to ensure safe transactions.

Additionally, they must participate in the regulatory framework for crypto exchanges, which is still in its infancy. All bitcoin exchange platforms, software programs, and storage solutions must adhere to the Cryptocurrency Security Standard (CCSS).

In 2014, the Cryptocurrency Security Standard was created to give precise recommendations on the secure administration of cryptos. This is the industry standard for any information system that handles and manages cryptocurrency wallets as part of its business logic.

The CCSS is an open standard that focuses on storing and using crypto within an organization. The CCSS is meant to supplement rather than replace current information security procedures and standards.

The CCSS is divided into three tiers, each with a higher level of security:

● Crypto wallets can be protected with high degrees of security by an information system that has achieved Level I safety.

● A higher CCSS level II equates to more substantial levels of security and formalized rules and procedures that are followed at every step of the business process.

● Multiple actors are needed for all-critical operations in level III of the CCSS, sophisticated authentication techniques are used to assure data authenticity, and assets are spread geographically and organizationally.

These conditions, when combined, make crypto wallets more resistant to hacking.

Final Thoughts

Cryptocurrency systems necessitate the production of keys/seeds, which should be kept private and difficult to guess for anyone attempting to access crypto they don’t own.

Dual verification for crypto wallet access, references, background checks, and redundant storage of keys and other access information all contribute to keeping an investor’s cryptocurrency safe.

Security issues will undoubtedly arise as cryptocurrency investment and exchange become more popular and widely used. As more people enter the crypto field trying to establish a name for themselves, it will be up to the various cryptocurrency platforms to prioritize security and data protection.

The Quick and Dirty History of Cybersecurity

The history of cybersecurity starts in the 1970s.  At this time words such as ransomware, spyware, viruses, worms, and logic bombs did not exist. But today, the explosive rise of cybercrime has caused such words to find their way into news headlines every day.

Cybersecurity is now a priority for every organization. Cybercrime is projected to cost the world trillions of dollars in the coming years.

But how did cybersecurity evolve? This article describes cybersecurity from its early beginnings to the present time.

From Academic to Criminality

history of cybersecurity - 1970s computer

For most of the 1970s and 1980s, when computers and the internet were still under development, computer security threats were easily identifiable.

A majority of the threats were from malicious insiders who gained access to documents that they weren’t supposed to view. Therefore, computer security in software programs and the security involving risk and compliance governance evolved separately.

Network breaches and malware existed at this time. But they were used for purposes other than financial gain.

For instance, the Russians used them to deploy cyber power as a form of weapon. Similarly, Marcus Hoss, a German computer hacker, hacked into an internet gateway. Hoss used the gateway located in Berkeley to connect to the Arpanet. He then proceeded to access 400 military computers, including the Pentagon’s mainframes. Hoss’ primary intent was to acquire information to sell to the Russian spy agency, KGB. An astronomer, Clifford Stoll, however, used honeypot systems to detect the intrusion and foil the plot.

Notably, this attack was the start of severe computer crimes utilizing virus intrusion. Viruses were no longer used just for academic purposes.

In the 1970s, Robert Thomas, a researcher at BBN technologies, realized the possibilities of creating a program capable of moving in a network and leaving behind a trail. This discovery led to the invention of the first computer worm. The worm was called Creeper, and it was designed to travel in between Tenex terminals. It printed the message “I’M THE CREEPER: CATCH ME IF YOU CAN.”

As described below, the creation of viruses and worms, such as the Morris computer worm, had severe repercussions. They almost led to a complete wipeout of the early internet. Virus attacks subsequently spurred an immense growth of the antivirus industry.

The 1980s – The Era of Computer Worms

The creation of the first computer worm was a milestone in the history of cybersecurity. Researchers trace the very first disastrous computer worm to Robert T. Morris, who was a graduate student from Cornwell University. Morris was curious about the internet size created a worm in 1988 to gauge it. The worm was designed to infect UNIX systems such that it would count the total connections present on the web. Morris thus wrote a worm program that would propagate across a set of networks, use a known vulnerability to infiltrate UNIX terminals, and then replicate itself.

However, this turned out to be a huge mistake. A programming error caused the worm to infect machine after machine. As a result, networks clogged, causing the connected systems to crash. The worm replicated aggressively to a point where the internet slowed down to a crawl, leaving untold damage in its wake. This worm is the first to have received full media coverage and was among the very first programs written to exploit system vulnerabilities.

The worm’s effects lasted beyond the crashed internet and connected systems. For one, Morris became the first person to be charged successfully under the Computer Fraud and Abuse Act. He was fined $10000, sentenced to probation of three years, and dismissed from Cornwell (although he went on to become an MIT tenured professor). The act further led to the development of a Computer Emergency Response Team, the predecessor of US-CERT.

The Morris worm triggered the start of an entirely new field in computer security. It led to more people researching on how they can create deadlier and more effective worms and viruses. The more worms evolved, the greater their effect on networks and computer systems. Worms and viruses, in turn, led to the rise of antivirus solutions as a means of countering the worm and virus attacks.

The 1990s – The Rise of Computer Viruses

history of cybersecurity 1990 computer

As previously mentioned, the Morris worm paved the way for newer types of malicious programs. Viruses were more aggressive programs that came into light in the 1990s. Viruses such as I LOVE YOU and Melissa infected tens of millions of computers, causing a worldwide failure of email systems. Most of the virus attacks were primarily concerned with financial gains or strategic objectives. However, inadequate security solutions at the time caused a huge number of unintended victims to be affected. The attacks became center-stage as they headlined in major news outlets in different parts of the world.

Suddenly, cyber threats and attacks were a huge concern necessitating the creations of an immediate solution. This problem gave birth to antivirus software solutions. The programs were designed to detect the presence of viruses and to prevent them from accomplishing their intended tasks. More so, the primary delivery method for viruses was the use of malicious email attachments. The virus attacks, most importantly, caused increased awareness, especially with regards to opening email messages originating from unknown people.

The Antivirus Industry

The early 1990s saw a sharp growth of companies creating and retailing antivirus products. The products were scanning computer systems for the presence of viruses or worms. At the time, the available antivirus solutions scanned business IT systems and tested them with signatures written in a database. Although the signatures were initially file computed hashes, they later incorporated strings similar to those present in malware.

However, two significant problems had high impacts on the effectiveness of these early antivirus solutions. The issues persist today in some of the current cybersecurity solutions. The problems included the intensive use of resources and a large number of false positives. The former caused the most problems for users since antivirus solutions scanning systems used a lot of the available resources such that they interrupted user activities and productivity.

During the same period, the malware samples produced every day increased in size and scope. Whereas only a few thousands of malware samples existed in the 1990s, the number had grown to at least 5 million by the year 2007. As a result, the legacy antivirus solutions could not handle such a capacity as security professionals were unable to write signatures that would keep up with the problems as they emerged. The challenge called for a newer approach that would offer adequate protection to all systems.

The endpoint protection platforms slowly proved to be better security solutions for countering an increasing rate of virus attacks and other related malware. Rather than depending on static signatures as the primary technique for detecting viruses, researchers used signatures to identify malware families. The solutions relied on the premise that malware samples were deviations from other existing samples. The endpoint protection platform approach was more effective. Customers realized that it was possible to detect and stop unknown malware since only a signature of other existing malware was required.

Secure Sockets Layer

ssl certificate

In light of the increasing virus and worm attackers, security professionals required to identify means for protesting users when browsing through the internet. The secure sockets layer (SSL) came to be in 1995. SSL internet protocol enables users to access the web securely and perform activities such as online purchases. Netscape developed the SSL protocol shortly after National Center for Supercomputing Applications developed and released the first internet browser. Netscape released the secure protocol in 1995, and it became the core for developing languages such as HyperText Transfer Protocol Secure (HTTPS).

The rise of the first hacker group

anononomous hacker group

There are many hacker groups and organized cybercrime groups today. They consist of individuals with a specific hacking skill and usually launch cyberattack campaigns characterized by different objectives. Anonymous was the first hacker group that came into the limelight on October 1, 2003. The group doesn’t have a particular leader, and the members are from different offline and online community users. It first made news when it hacked a website belonging to the Church of Scientology using distributed denial of service attacks (DDoS). To date, Anonymous has been linked to many high-profile attack incidents and has motivated other groups such as Lazarus and Apt38, to execute large-scale cyberattacks.

Credit card hacks in the 2000s

Credit card hackers

In the 2000s or the new millennium, as it popularly came to be known, cyberattacks started being more targeted. One of the most memorable attacks during this period includes the first reported case of serial data breaches targeting credit cards. These were perpetrated between 2005 and 2007 when Albert Gonzales created a cybercriminal ring for compromising credit card systems. The group executed attacks that successfully stole confidential information from at least 45.7 million cards[1]. These belonged to customers frequenting TJX retailers.

The breach caused the giant retailer a loss amounting to $256 million. More so, since it involved compromising regulated data, the breach caused the involvement of US authorities. The company was further required to set aside funds that would be used to compensate the affected victims. Gonzales received a sentence of 40 years in prison imprisonment. TJX was unprotected when the breach occurred and other organizations saw this as a cue for protecting themselves with sophisticated cybersecurity programs.

EternalBlue: Lateral movement attack techniques

eternal blue history of cybersecurity

Lateral movement attack techniques allow cybercriminals to run codes, issue commands, and to spread across a network. Such methods have been in play for several years and are hence not new to system administrators. Lateral movement vulnerabilities have been present in some operating system protocols for many years, enabling cybercriminals to execute lateral stealth attacks. EternalBlue constitutes of a notable example of lateral movement vulnerability.

The EternalBlue vulnerability allows an attacker to exploit SMB protocols used to share files across a network. As a result, the protocol highly attracts cyber adversaries. Shadow Brokers leaked the protocol on April 14, 2017, and the notorious Lazarus group used it as an exploit for the infamous WannaCry attack on May 12, 2017. The WannaCry attack was a global ransomware attack targeting health institutions mostly in Europe. The attack was quite devastating as it caused health services to halt for almost a week.

The EternalBlue exploit has also been used to execute other high-profile cyberattacks. On June 27, 2017, the vulnerability was exploited in the NotPeyta attacks which targeted banks, ministries, electricity, and newspaper firms across Ukraine. The attack spread in other countries, including France, the US, Russia, Poland, Italy, Australia, and the United Kingdom. It was also used to execute Retefe banking trojans.

Cybersecurity regulations and laws

cybersecurity law

The evolution of technology in different industries has propelled cyber laws to emerge. These laws intend to protect systems and confidential data. Some of the notable regulations in cybersecurity history include the Health Insurance Portability and Account Act (HIPAA). HIPAA became law on August 21, 1996, with the intent of improving employees’ accountabilities in regards to insurance coverages. The bill has nevertheless been amended over the years to focus more on protecting employee personally identifiable information (PII).

Also, the Gramm-Leach-Bliley Act (GLBA), also called the Financial Modernization Act, was enacted in 1999 to protect the personal data of customers of financial institutions. The law requires a financial organization to provide detailed information on the strategies it intends to use when securing a customer’s private data. To comply with the law, financial organizations must always alert customers on how they will share their personal information. More so, the law stipulates that customers have the right to deny financial organizations the rights to share sensitive data. Also, the financial institution must maintain a documented information security program for protecting customers’ sensitive data.

Notwithstanding, in 2003, the Federal Information Security Management Act (FISMA) was legislated to provide organizations with guidance for securing information systems. The law defines a complex framework to be applied in securing government IT assets, data, and operations from natural or manmade disasters. The act followed the enactment of the E-Government Act (Public Law 107-347), which outlined the main threats that affect information systems. The E-government Act also outlined the need for adopting effective security measures for securing against the threats. FISMA falls under the E-Government Act.

According to the FISMA act, all federal agencies must develop and document agency-wide programs for protecting information systems. For an agency to be FISMA compliant, it must observe the following guidelines:

  • Conduct frequent inventories of current security measures
  • Analyze existing or anticipated threats
  • Design working security plans
  • Designate security professionals for overs sing the implementation of the security plans and continuously monitor its effectiveness
  • Document plans for reviewing the security plans and periodically assess its security operations

There are other recently enacted regulations. An example is the General Data Protection Regulation (GDPR). This regulation provides mandatory guidelines for institutions handling PII data and imposes hefty fines any incidence of non-compliance. The GDPR protects data specifically belonging to members of the European Union. The fundamental tenet of the regulation is ensuing organizations implement adequate data protection controls, which include encryption for both data in transit and data at rest.

Also, every organization has to seek the explicit consent of data owners before using their confidential information for any reason. Organizations stand to be fined at least 4% of their annual profits for failing to properly secure PII information or using customer data without their permission. They can also be fined 4% when a breach occurs due to inadequate security measures.

Cybersecurity frameworks

cybersecurity frameworks

In addition to cybersecurity laws and regulations is the proposal of different frameworks. These frameworks intend to guide federal and private organizations to secure their information systems better. The US Department of Homeland Security strategy, for example, was rolled out in 2018. This strategy proposes guidelines that an organization can use to detect and identify risks. It further highlights the techniques for reducing cyber vulnerabilities, lowering the threat levels, mitigating the aftermath of a cyber-attack, etc.

The Federal Cybersecurity Research and Development (R&D), on the other hand, has been active since 2012 and is updated every four years. This framework incorporates the idea that it is near impossible to be 100% protected from cyber-attacks. As a result, the framework guides federal agencies on effective risk detection and response. It provides guidelines for analyzing risk history and classifying them based on the levels of severity. Organizations tend to use both frameworks to implement and accordingly update strong cybersecurity programs.

Recent cybersecurity attacks

Today, cybercrime has become mainstream. Cybercriminals have been using attacks for various monetary gains. Cybercrime evolved since the 80s and 90s when worm and malware attacks intended to allow unauthorized access.

The following sections provide some facts regarding recent cyberattacks. It is followed by what the attacks mean for the future of cybersecurity.

Yahoo attacks: Yahoo was the victim of one of the worst attacks in 2013 and 2014. The attacks resulted in a compromise of Yahoo accounts belonging to over 3 billion users[2]. The attacks exploited unpatched vulnerabilities. Hackers used spear-phishing techniques to install malware on Yahoo’s servers, allowing them unlimited backdoor access. They were able to access Yahoo’s backup databases and made away with confidential information such as names, emails, passwords, and password recovery questions and answers.

State-sponsored attacks: There have been many cases of state-sponsored attacks. One hundred and forty-four universities within the United States were attacked in 2018 using different types of attacks. The attacks were executed over three years and led to the loss of intellectual properties amounting to $3billion and at least 31 terabytes of data[3]. Investigations revealed that Iran was behind the attack. The United States identified and prosecuted nine hackers of Iranian descent.

Similarly, there have been many other cases of state-sponsored attacks. In 2014, North Korea sponsored the Lazarus Group which hacked into Sony. The hackers released videos of upcoming films and actors’ images. More so, Lazarus has struck other countries targeting their financial institutions. Lazarus’ biggest heist was the Bangladesh Bank attack where the group stole more than $80 million[4].

Gmail and Yahoo attacks: Iranian hackers were able to successfully hack into the Gmail and Yahoo accounts belonging to top US activists, journalists, and government officials in 2018. After studying the habits of the targets, the attackers used spear-phishing emails to trick them into inputting their login credentials in dummy pages accessible by the hackers. The hacks even overcame the highly acclaimed two-factor authentication techniques.

Cybersecurity in the future

cybersecurity future

Understanding the history of cybersecurity gives you an overview of how cybersecurity has evolved from once being simple experiments and academic research. Cybersecurity efforts now attempt to stop devastating attacks. Current statistics indicate cybersecurity prevalence will continue growing. Cybercriminals are expected to use new innovative strategies for executing stealth attacks by leveraging emerging technologies like artificial intelligence, blockchain, and machine learning.

Besides, as the recent cyberattacks have shown, attackers are capable of bypassing recognized security controls like two-factor authentication. Such attacks show that we still have a long way before we can ultimately become cyber secure. Organizations and security companies have to rethink their approaches towards cybersecurity.

Cybersecurity in the future means that researchers and security experts need to direct all their efforts towards leveraging the benefits of emerging technologies. They must reduce cyber-attack incidences and minimize their effects whenever they occur.

Currently, artificial intelligence is integrated into antivirus and firewall solutions to achieve smarter detection and response capability. Moreover, since all organizations have automated most of their processes, cyberattacks are more concerned with compromising system security. The intent is to prevent them from accomplishing normal operations by locking out system users or stealing critical data.

The emergence of 5G networks is set to automate critical infrastructure like transportation — advances in technology propel cyberattacks to evolve.

We need to anticipate these advances by actively developing countering solutions.

[1] https://www.coloradotech.edu/degrees/studies/information-systems-and-technology/cybersecurity-history

[2] https://www.nytimes.com/2017/10/03/technology/yahoo-hack-3-billion-users.html

[3] https://www.wired.com/story/iran-cyberattacks-us-universities-indictment/

[4] https://www.wired.com/story/iran-cyberattacks-us-universities-indictment/

6 Essential Tips for Passing the CISSP Exam

The Certified Information Systems Security Professional (CISSP) test is a challenging and highly respected certification in the field of information security. It is designed to test the knowledge and skills of professionals in the field of information security. It is often seen as a benchmark for professionals looking to advance their careers in this field.

To pass the CISSP exam, it is crucial to have a strong foundation in the knowledge and skills that are covered on the exam. This includes topics such as security and risk management, asset security, security engineering, communications, and network security, and identity and access management. It is also essential to have a solid understanding of the eight separate domains of the CISSP Common Body of Knowledge (CBK), which are:

  1. Security and Risk Management
  2. Asset Security
  3. Security Engineering
  4. Communications and Network Security
  5. Identity and Access Management
  6. Security Assessment and Testing
  7. Security Operations
  8. Software Development Security

In addition to having a solid foundation in the knowledge and skills covered on the exam, some key strategies can help you prepare for and pass the CISSP exam:

  1. Use study materials: There are many different study materials available to help you get ready for the CISSP exam, including books, online courses, and practice exams. These materials can help you understand the concepts and topics covered on the exam and identify areas where you may need additional study.
  2. Create a study plan: It is essential to create a study plan that allows you to cover all the exam material and allocate enough time to study and review. This may involve setting aside specific times each day or week to study or breaking down the material into smaller chunks that you can tackle over time.
  3. Practice with practice exams: Practice exams can help you gauge your level of understanding and identify areas where you may need to focus your studies. It is essential to use practice exams that are similar in format and difficulty to the actual CISSP exam.
  4. Review the official study guide: The (ISC)² Official Study Guide for the CISSP exam is a comprehensive resource that covers all of the material on the exam. Reviewing this guide thoroughly as you prepare for the exam is a good idea.
  5. Understand the exam format: It is important to understand the format of the CISSP exam, including the common types of questions that will be asked and the time allowed for the exam. This will help you prepare mentally and ensure that you are able to manage your time effectively during the exam.
  6. Get plenty of rest: It is crucial to get enough rest and be well-rested on exam day. This will help you maintain your focus and perform at your best during the exam.

Overall, passing the CISSP exam requires a combination of a strong foundation in the knowledge and skills covered on the exam, diligent study and preparation, and a clear understanding of the exam format and requirements. With the proper preparation and approach, you can successfully pass the CISSP exam and advance your career in the field of information security.

Most Popular Application Security Framework (Top 2)

0

Many security experts agree that current security controls and capabilities cannot protect web applications sufficiently against present cybersecurity risks. Therefore, the need to develop secure applications cannot be ignored, given the numerous dangers, exploitable web application vulnerabilities, and security threats facing today’s apps. Yet, more people are using different apps today for important reasons. For example, there are 5.19 billion mobile app active users. Thus, an application security framework is essential for secure application development processes.

An application security framework comprises international and state-mandated cybersecurity procedures and processes for securing critical applications. Additionally, it provides a detailed and holistic approach to securing sensitive data. More importantly, an application security framework assists companies in risk management practices by providing complete visibility of validating security controls. Overall, an application security framework enhances the security of vital information systems and associated environments.

Why do You Need an Application Security Framework Program?

Application security framework programs play a vital role by helping organizations determine the cybersecurity aspects for enhancing app security. Moreover, companies must comply with a myriad of security standards and regulations, and a software security framework details the best practices and required security controls to ensure full compliance. Besides, with new vulnerabilities springing up every day, development teams may lack adequate awareness of emerging security vulnerabilities, applications security requirements, and new standards. Thus, an application security framework can assist software developers and organizations realize a strong security posture.

Also, a recent report describing the state of application security revealed worrying findings and statistics that make it essential to use industry-standard security measures and popular frameworks to realize secure web applications. The findings include:

  • At least 56% of the most recent cyber incidents involve some types of security flaws and software vulnerabilities. In addition, 42% of the incidents caused extreme financial losses.
  • Companies may take up to days to detect cyber incidents involving application exploits. But, shockingly, the study found that the average number of days required to detect incidents in other extreme cases is.
  • State-sponsored threat actors contributed to 57% of financial losses resulting from application attacks in the last five years. In this regard, penetration testers, organizations, and application developers must update their cyber threat models accordingly.
  • Application attacks account for the most data breaches in the last 6-8 years.

It is also essential to note that organizations use mobile and web applications to drive critical operations and decision-making processes. However, they are a prime target for attackers since 98% of companies have reported different attacks targeting mobile applications. Some of the most significant threats facing web applications include denial of service (DoS) attacks, cross-site scripting attacks, SQL injection attacks, and API manipulation. Mobile and web-based applications are the heartbeat of most digital businesses and often transmit or process sensitive data. An application security framework can assist organizations in securing their most vital applications.

Top Benefits of Using an Application Security Framework

1.      An Industry-Standard Defined Structure for Securing Applications

With an application security framework, companies and developers to map their cybersecurity requirements. In addition, a security framework assists in identifying security gaps to ensure that all stakeholders inform decisions through actionable and clear conversations. For example, application developers can apply a standard throughout the software development lifecycle to ensure the security of web applications. Other software security projects describe the recommended application security tools or the secure code practices in an app development process. Such measures play a critical role in preventing unauthorized access to confidential information.

2.      The Universal Applicability of Security Standards

Different countries have different data protection laws and regulations. Nevertheless, they all serve a similar purpose of preventing unauthorized access to mission-critical information. For instance, despite the location or industry of a specific company, a security framework provides industry-standard guidelines that stipulate particular actions and measures to implement concerning data protection. Furthermore, using an application security framework allows organizations to reach new markets and acquire new customers since universal applicability implies that it can be used across industries or regions.

3.      Static Application Security Testing

Developers can use a software security framework to test app security, identify security weaknesses in source code, fix vulnerabilities, and ensure third-party components are up to the recommended security level. Besides, an app security testing framework can assist in modeling security threats, creating profiles for various app security risks, and identifying required access controls. Additionally, testing application security using existing frameworks enables vulnerability identifications and cybersecurity exposures in critical applications. Detecting threats facing the underlying infrastructure or those associated with enterprise applications can help companies establish consistent mitigation procedures to ensure an enhanced security posture.

Most Popular Application Security Frameworks

1.      NIST SP 800-53

Application Security Framework SP800-53

The National Institute of Standards and Technology (NIST) released the NIST special publication (SP) 800-53 applications security framework that describes the recommended risk management practices. The latest version, NIST SP 800-53 Revision 5, includes new updates that stipulate the industry-standard application testing practices. Updates to the NIST framework are continuous to ensure constant improvement in light of the constantly changing technological ecosystems and emerging threat landscapes. With cyber-attacks increasing in complexity and innovation, NIST SP 800-53 provides guidelines for identifying and remediating vulnerabilities in applications. As a result, it significantly reduces security risks by thwarting attackers’ attempts to breach organizational applications.

Specifically, NIST 800-53 Revision 5 consists of two application security testing inclusions – SA-11(9), which describes measures for Interactive Application Security Testing (IAST; page 271), and SI-7(17), which discusses the best practices for Runtime Application Self-Protection (RASP; page 339). The updates provide a much-needed boost to the essence of testing applications’ security following the recommended practices. In essence, the updates reference the need for IAST and RASP tools. More importantly, including the updates in the NIST framework will help developers detect security vulnerabilities before launching new applications.

Implementing the RASP practices, for instance, can help equip organizations with two essential application security capabilities. Firstly, runtime alerts signaling vulnerability exploitation can provide companies with a better understanding of their vulnerability exposures. Also, sophisticated technologies like RASP solutions can reduce overhead present in previous RASP tools, and deterministic security can benefit companies through lesser false positives. RASP solutions also provide real-time telemetry and application security threat intelligence. Real-time telemetry can help enterprises block attempted attacks without disrupting user access to the applications to ensure business continuity.

On the other hand, interactive application security testing (IAST) provides an ongoing process for interacting with various operations on applications without affecting the CI/CD pipeline. Essentially, an IAST agent works on an application by analyzing code as it runs in real-time. Therefore, it solves issues present in SAST tools and DAST tools by enabling rapid vulnerability mitigation for security flaws found in web application code. Furthermore, since IAST is designed to interact with an application, it permits in-depth testing of an application than DAST and SAST tools. 

2.      Open Web Application Security Project

owasp Applicaton Security Framework

Open Web Application Security Project (OWASP) is an Application Security Verification Standard that identifies application security tests and requirements. The OWASP Application Security Verification Standard is designed for consumers, security professionals, developers, testers, and architects to define and achieve a secure application. In addition, the application security verification standard establishes a framework consisting of application security controls and requirements for modern applications. In particular, the standard focuses on normalizing non-functional and functional security controls that can facilitate the designing and development of secure web applications.

The most recent OWASP Application Security Verification Standard consists of various sections, such as web services, modern client-based applications, and configurations to ascertain that it is applicable in securing modern applications. In this regard, the OWASP Application Security Verification Standard serves two objectives – assist companies in developing and maintaining secure applications and permit consumers, security tools vendors, security services to align security requirements with application offerings. The recommended way of using the standard is to use it as a guide for creating secure code checklists specific to an organization’s application or platform. In addition, tailoring the OWASP top practices can help companies focus on security requirements vital to particular environments.

Conclusion

An application security framework provides organizations with a holistic approach for managing application security risks and ensuring information security. It provides the depth and breadth that enable companies to verify and validate required app security controls to enhance data security and surrounding environments’ security. In the modern digital era, where developers and organizations embrace the agile vs. DevOps app development approaches, an application security framework provides similar security requirements that cut across the divide.

Leveraging an application security framework is the first step towards achieving a building-it right approach in reference to secure application development that enables continuous monitoring of security weaknesses to inform appropriate remediation measures. Furthermore, an applications security framework empowers stakeholders and industry leaders to make consistent risk-based decisions that assist in improving critical infrastructure cybersecurity. Also, an application security framework combines organizational best practices based on industry-specific frameworks with standard-based application security policies tailored to specific compliance and business needs.

How SBOMS can help improve Supply Chain Cybersecurity

0

By Ajay Singh, Author of CyberStrong! A Primer on Cyber Risk Management for Business Managers

Contemporary software development involves not only the generation of original code to meet required functionality but also using third-party and open-source components wherever possible to aid faster development and implementation cycles. In effect, any software often represents an assembly of software components- some original and some sourced as it goes into deployment. High-profile cyber-attacks involving software supply chain partners like SolarWinds which left thousands of their customers exposed to undesirable consequences have brought to the forefront the risk posed via the software supply chain. So much so that the US Federal Government Executive Order on Improving the Nation’s Cybersecurity of May 12, 2021, directed the National Institute of Standards and Technology (NIST) to issue guidance within 90 days and define standards, procedures, or criteria to enhance the security of the software supply chain. A key aspect of this order was that of providing a purchaser a Software Bill of Materials (SBOM) for each product.

The concern shown by the U.S. federal government regarding software supply chain attacks is understandable and timely considering that software supply chains are an integral part of critical IT infrastructure like Defense, Financial Services, Healthcare, etc., and can pose a threat to national security. While we may be tempted to believe that it was a succession of software supply chain attacks such as the SolarWinds attack in late 2020, followed by the supply chain attack on Colonial Pipeline in May 2021 and the attack on Kaseya customers in July 2021 that set the alarm bells ringing, experts were well aware of the risks that emanated from the software supply chain and that it was a problem waiting to receive due attention and prioritization.

As far back as April 2014, the US Federal government introduced The Cyber Supply Chain Management and Transparency Act of 2014 which required the Office of Management and Budget (OMB) to issue guidelines for agencies that contract to acquire software, firmware, or products containing a third party or open-source binary component. The purpose of the Act was to ensure the integrity of any software, firmware, or product developed for or purchased by the United States Government by enforcing the following requirements:

  • The supplier/vendor must supply a bill of materials, of each binary component that is used in the software, firmware, or product.
  • The supplier/vendor should verify that products do not contain known security vulnerabilities and to notify the purchasing agency of any known vulnerabilities or defects.
  • The supplier/vendor must obtain a waiver from the purchasing agency for components known to be vulnerable.
  • The agency granting a vulnerability waiver must accept all risk associated with component use.
  • Product designs must allow fixes with patches, updates, or replacements; and
  • The supplier/vendor must provide timely repairs for discovered vulnerabilities.

While the Act was not passed, it was an acknowledgment by the US Federal Government that there were inherent security challenges in the management of the software supply chain that could pose a serious threat and expose critical IT systems and infrastructure to a host of known (but unaddressed) and unknown vulnerabilities and that SBOMs were essential in assessing exposure and tracking remediation efforts.

Ultimately, cybersecurity is about risk mitigation, identifying the threats and gaps, and fortifying defenses to enhance security. While the risk always existed, the spurt in software supply chain attacks and the scale of damage that they can cause has only exacerbated the need to bring greater transparency and accountability to software applications that are connected to enterprise networks and other IT infrastructure. It is now being widely acknowledged that generating and maintaining an SBOM across the entire software supply chain is something that is long overdue and can play a key role in preventing supply chain cyber-attacks.

The National Telecommunication and Information Administration which is a part of the US Department of Commerce, describes a Software Bill of Materials (SBOM) as an ‘effectively a nested inventory, a list of ingredients that make up software components. Simply put, it is a list of sub-assemblies(components), sub-components, both open-source software and commercially sourced components that form a part of an application’s code along with associated services, environment, and dependencies.

Whether by mandate or through proactive efforts it should be incumbent on software suppliers to provide a customer with an SBOM for each product directly or by publishing it on a public website. Customers should also insist that an SBOM is made available to them at the time of purchase and must reserve the right to verify /audit the same during the life cycle of the application. An SBOM can not only bring cybersecurity into focus but provide benefits to multiple stakeholders such as developers, security, risk assessment teams as well as compliance and audit personnel. Without having SBOMs organizations can never fully understand how secure and safe their applications are from cyber threats and attacks.

There are people who argue (and perhaps rightly so) that publishing SBOMs could effectively provide a handle and a roadmap to attackers, but on the balance, the advantages provided by transparency and accountability outweigh the concerns. Anyway, hackers have their own tools and methods to identify and exploit vulnerabilities.

Organizations can start with generating their own SBOMs using commercially available tools or open-source tools like OWASP Cyclone Dx which offers different language level tools to generate SBOMs from existing package manifests or other inputs. Important aspects of metadata that can be captured are supplier/product name, version when the sub-component was introduced into the software, current version supported by the supplier, license information, etc. The next challenge is to make this a living document that reflects the present status at any given point in time. Ideally, a security dashboard that could reflect the associated risks along with the listing of the software component would go a long way in monitoring and managing software supply chain risks. Suppliers/vendors in vulnerability assessment, vendor risk management, and software composition analysis are already incorporating SBOM services to support organizations in implementing these plans. SBOMs are undoubtedly becoming essential for organizations wanting to adopt the best cybersecurity practices and manage associated risks. Keyways in which SBOMS can help improve Supply Chain Cybersecurity are:

  • Provide comprehensive visibility into operational software, components, and system relationships
  • Enable better vulnerability management
  • Ensure timely rollouts and rollback of critical patches and remediation steps
  • Support compliance and supply chain integrity through close coordination between vendors and customers

SBOMs today has become a key building block in software security and software supply chain risk management. Recognizing this and developing a deeper understanding of the supply chain of software, acquiring/creating an SBOM, and using it to analyze known vulnerabilities are crucial to managing risk in a supercharged cyber threat environment.

4 Reasons Small businesses Should Be Cybersecurity Compliant In 2023

0

With the continuous advancement of modern technology, one cannot deny how it has significantly improved our lives, and businesses are not an exception to it. From optimizing efficiency and productivity of day-to-day operations, technology has paved the way to make the exchange of information easy and convenient, enabling smoother and faster transactions with clients.

However, as much as technology brings advantages to your business, it has a string of disadvantages too. Technology may be progressive, but it poses certain risks that may potentially hurt your growing business. Cyber-attacks are one of them. 

If you own a small business, having a robust cybersecurity system can be a good defense against the rampant cyber-attacks on the rise every day. Surprisingly, it is believed that hackers tend to target small and medium-size businesses more compared to large corporations. One of the reasons for this is that most small businesses have not yet established a cybersecurity infrastructure for their business. Or if they do, it’s not as intensive as what large enterprises have. 

Here are a few reasons why being cybersecurity compliant is important for your small business.

  1. Regulatory Measures And Non-Compliance Repercussions 

As threats against data privacy continue to be a concern among consumers, authorities have enacted relevant regulations to ensure that certain cyber standards are adhered to. This not only aims to protect the consumers but the business owners as well. 

With that said, non-compliance can lead to fines and penalties, or even legal action, coming from consumers, business associates, or investors whose data and records were affected by the cyber-attack. On top of that, if you are looking into collaborating with the government, it would be impossible to get into it, if you can’t provide a cybersecurity certification.

Educating yourself with cybersecurity laws implemented in your state or country can go a long way. It can save you time, resources, and the trouble of dealing with non-compliance repercussions. 

  1. To Protect Business Reputation 

Business thrives from the position of trust and loyalty from your customers. Nobody likes to deal and connect with a business that has no sufficient data protection system.  Therefore, to appeal to your customers and business stakeholders, you need to implement a reliable security system and be transparent about your security protocols.

It’d be good to note that consumers are now becoming increasingly aware of the type of information they share with businesses and their rights when it comes to their personal data. With that said, keeping your consumers’ data safe and secure should be your priority, as business owners.

For instance, if you lack secured online payment methods on your website, chances are your consumers will grow hesitant in purchasing your products. They wouldn’t risk giving their information if they don’t have the assurance that their data will be protected. This can significantly affect your sales and revenue. 

Moreover, consumers are also becoming more vocal, in terms of reviews and feedbacks. If there’s evidence that your site is unsecured, not only can you lose your sales but it can hurt your business’s reputation as well. 

  1. Growing Cyberattack Concerns

If you own a business in the healthcare, retail, and financial sector, your business might be at more risk compared to other types of businesses, all because of the nature of information you hold. With the advent of the internet of things (IoT), your business is highly at risk, as your customers use their mobile devices to access your site. In addition to that, some of your customers might be using unsecured public internet that might further put your business at risk.  

The more visitors you have on your website, the more chances of experiencing a cyberattack. With that said, the only way to protect your business data against this threat would be to institute stringent cybersecurity measures from your end.  

  1. To Ensure Confidentiality of Business Data 

While it is less common, cyberattacks can be internal too. Data leaks can be due to an employee- either on purpose or accidentally. Whichever the case is, access to sensitive data within your company should be only limited to employees who need them. If an employee doesn’t need particular information to do their daily work, your IT infrastructure should restrict them from gaining access to it.

For instance, someone in the marketing department might not be in need of financial details concerning your esteemed clients. Based on their role, the only information they may need could be a phone number, email address, physical address, and any other information that they may need to reach out to your clients during your marketing campaigns. Therefore, you can limit information access to a departmental level or to employee level, depending on what is most appropriate. 

One strategy that you can use to limit data access is the use of a password policy. For instance, if you have systems such as a customer relationship management system (CRM) or a financial management system (FMS), it should be configured to ask for passwords before one can get access. In addition, it can also be configured to prevent saving passwords in the system. 

You can also automate your infrastructure to track processes within your system to know who accessed certain information, the time, and how it was transferred.

Availability Of Cheaper Cyber-Security Solutions

In the modern age of technology, it’s possible to have your small enterprise entirely secured with a fraction cost that is considered lower compared to years back. What you need to do is to engage the services of a reputable IT consulting agency. Outsourcing your IT functions, especially ones geared towards cybersecurity, can be cheaper as compared to hiring and utilizing an in-house team of experts and purchasing your own equipment.

In addition to that, working with an IT consulting firm can give you access to competitive security systems that can help boost your infrastructure.

Opting for this kind of arrangement does not only help your small business to be properly secured but can help you save on operation costs and resources as well.

Conclusion 

Investing in competitive cybersecurity might be a tall order for small businesses, mainly due to the financial expenses involved. However, it’s a worthy investment that can help protect your business against cyber threats. Being secure online is the best security that your business can have. Some attacks have the potential of shattering your business existence completely. Thus, it’s better to undertake prevention steps than to deal with an attack and its aftermath.

8 Cyber Attacks on Critical Infrastructure

Cyber attacks on critical infrastructure can target technologies, processes, networks, services, systems, and facilities essential to public safety, health, and economic activities. Governments also rely on critical infrastructure to render effective services. As a result, disruptions of critical infrastructure due to cyber-attacks can cause grave consequences.

Despite this, a new study revealed that 83% of organizations that manage critical infrastructure suffered a cyberattack in 2021. However, the research also found that 73% of CISOs and CIOs expressed high confidence that their organizations will not be victims of operational technology breaches in the coming years. However, such a false sense of security is misguided since attacks are about when rather than if.

In addition, additional research found a pervasive lack of awareness and knowledge regarding cyberattacks on critical infrastructure. The study, which involved more than 2,000 participants across the United States, revealed that end-users are less concerned with attacks that target critical infrastructure and operational technologies.

While devastating ransomware attacks and other malware attacks on critical infrastructure continue to make headlines globally, most respondents lacked awareness of how attacks on critical infrastructure can impact nations, businesses, and consumers. For example, 21% of individuals have not heard of the ransomware attack on the largest fuel pipeline in the United States.

Fragile Critical Infrastructure

As attackers step up their efforts towards cyber attacks on critical infrastructures, the infrastructure itself is fragile. In addition, the attacks target critical sectors like food, gas, financial, and transportation since most systems are legacy and lack the capabilities of protecting against modern attacks. In light of this, the US Cybersecurity and Infrastructure Security Agency (CISA) issued an alert – Alert (AA21-287A) Ongoing Cyber Threats to US Water and Wastewater Systems on Oct 14, 2021.

The joint advisory by the FB, National Security Agency (NSA), and the FBI highlights the increasing malicious cyber activities perpetrated by known and unknown harmful actors targeting the operational technology and information technology of US Water devices, networks, and systems Wastewater Systems facilities.

It is essential to note that the advisory draws attention to the fragility of most critical infrastructure sectors in the US and globally. In particular, the alert warns of increasing malicious cyber events, including ransomware attacks, spear-phishing incidents, exploits targeting internet-facing services, and exploitation of outdated software and operating systems. Such cyber threats may result in severe impacts on the transportation, electric, or water sectors.

The pressing urgency to address threats of cyber attacks on critical infrastructure cannot be underscored. Nevertheless, a multitude of challenges hinders the efforts channeled towards elevating the cybersecurity posture of critical infrastructures. One of the primary challenges is the complex nature of critical infrastructure systems. Most essential systems are extremely complex due to the increased use of connections and devices added to the systems.

In addition, most of the current critical infrastructure systems consist of a mixture of legacy, outdated, and insecure systems. However, there is also a significant integration of legacy systems with new technologies to leverage automation and advanced analytics capabilities. While newer technologies comprise promising cybersecurity features, the combined use with legacy systems exposes them to attacks.

Cyber Attacks on Critical Infrastructure are More Common

A ransomware group, BlackMatter, believed to have close ties with the infamous DarkSide ransomware gang, took out the online networks of farmers cooperative calked NEW Cooperative. The incident caused enabled the ransomware group to encrypt and lock the cooperative’s data, sensitive information, and systems and demanded a $5.9 million ransom to provide a decryption key. The Iowa-based cooperative has fifty locations and provides farmers with diverse software and digital services. As a mitigation measure, the cooperative took down its systems offline, impacting hundreds of farmers.

The ransomware attack comes on the heels of a similar ransomware attack on Japanese tech giant Olympus, still attributed to BlackMatter. According to security experts, BlackMatter operates ransomware as a service affiliate program, similar to DarkSide. DarkSide is blamed for the ransomware attack on the Colonial Pipeline that caused widespread outage and disruption of the fuel industry across North America. The attack, among others, prompted the Biden administration to determine 16 critical infrastructure sectors within the US and warn against ransomware attacks targeting them. President Biden’s remarks were aimed at global leaders urging cooperation in protecting critical infrastructure against increasing attacks.

Also, a hacker attempted to poison a water treatment plant in the San Francisco Bay Area. The hacker used the stolen login credentials of an employee’s TeamViewer account, a platform that permits users to control computer systems remotely. After using the username and password to log in, the attacker deleted various programs that treat and clean water at the plant. The incident was later discovered the following day, but luckily, it did not cause any fatalities or illness.

Besides, the operational technologies that interconnect industrial control systems to facilitate the management of critical infrastructures have become prime targets for cyber adversaries. Specifically, as services such as water supply and water treatment plants, power grid systems, healthcare systems, and transportation systems rapidly integrate operational technologies with the Internet of Things (IoT), they are creating new cyber risk frontiers. In addition, the integration of legacy systems with vulnerable IoT technologies introduces millions of unknown attack vectors and vulnerability points.

Recent attacks targeting critical infrastructures have huge adverse implications on businesses, cities, communities, and countries. Some of the repercussions can be dire. For example, hackers targeted an Israeli water treatment facility through exposed IoT systems, enabling the attackers to change water temperature, pressure, and chlorine levels. Had such an attack succeeded, the hackers would have been able to poison entire communities or trigger a failsafe, causing acute water shortage. 

Ransomware Attacks Targeting Critical Infrastructure Industries

1.      Colonial Pipeline

The 2021 Colonial Pipeline ransomware incident received widespread news and media coverage. The attack made a global impact since it is an essential part of the US critical national infrastructure systems. The ransomware incident disrupted fuel and gas supply across the United States, causing panic and chaos. The gasoline shortage directly impacts most Americans, and the attack, therefore, potentially affected most users.

The DarkSide ransomware gang was responsible for the Colonial Pipeline hack. The hack targeted the organization’s internal corporate networks and billing systems, causing fuel and gas shortages across multiple states. Although the company initially tried to contain the attack, it resorted to parting with the demanded ransom of $4.4 million to prevent further disruption.

The Colonial pipeline was especially devastating since it caused most consumers to panic and ignore safety measures. Some of the affected residents attempted to carry gasoline in flammable bins and plastic bags, endangering the lives of others. Once the chaos receded, investigations revealed that Colonial Pipeline failed to observe cybersecurity best practices and some of the implemented measures were incapable of protecting against the attack.

2.      JBS Foods

JBS Foods is one of the largest meat processing companies in the world. The organization was also the victim of a high-profile ransomware attack incidence. REvil, a Russian-based hacker group, was responsible for the devastating attack. Although the attack did not result in a major food shortage, there were fears of a meat shortage, causing the federal government to urge consumers not to panic.

The ransomware incident case JBS Foods to halt production operations as the company attempted to respond and contain the attack. However, JBS made a ransomware payment amounting to $11 million after consultations with cybersecurity professionals to regain control of the affected systems. The JBS ransomware payment remains to be one of the most significant payments done to a ransomware group.

What is Being Done to Protect against Cyber Attacks on Critical Infrastructure?

Most of the critical infrastructure deployments are privately-owned and require the private and public sectors to coordinate efforts to protect against IoT threats, ransomware attacks, spear-phishing attacks, and malware incidents. In this regard, addressing gaps in critical infrastructure security standards and protocols require industry leaders and governments to initiate cybersecurity policies for legacy and modern critical IT and OT systems.

For example, the European Union Agency for Cybersecurity (ENISA) published cybersecurity guidelines and standards for IoT supply chains in 2020. Introducing standardized cybersecurity guidelines for operational technologies and critical assets can ensure the private companies operating critical infrastructures achieve a recommended cybersecurity preparedness. Also, ENISA is now developing specific cybersecurity standards for critical infrastructure industries and operational technology operators.

At the same time, the National Institute for Standards and Technologies (NIST) developed the IoT Cyber Security Improvement Act was enforced to ensure the public sector in the US extends robust protection and security capabilities in all IoT deployments.

Best Practices for Protecting Against Cyber Attacks on Critical Infrastructure

Governments and policymakers must signal the willingness to deter cybercrime with sophisticated and persistent cyber adversaries launching complex and increasingly ambitious attacks on various critical infrastructures. Since hostile adversaries enjoy the protection of rogue nations, it is in the interest of the US and other countries to project stability and power in cyberspace.

Federal government agencies, including the Department of Homeland Security, requires robust capabilities to demonstrate commitment to deterring debilitating and significant threats against the critical national infrastructure. In addition, the US and other international governments need to create policies for punishing guilty actors within the limits of international law.

Furthermore, the interconnectivity of the US critical infrastructure and the risks of adverse outcomes impacting private entities operating critical systems require strengthening of the weakest links. SMEs cannot implement the same security resources as those installed in multinational organizations due to limited resources, thus creating blind spots. The interconnected nature of the various critical infrastructures implies that exposed attack surfaces present systemic security threats. Therefore, the US government and institutions in the private sector must enforce policies that bolster the security of interconnected critical infrastructures.

More importantly, the US government requires to put more effort into protecting against cyber attacks on critical infrastructure across all industries. The government’s obligation and role in rebuilding and enhancing security for critical infrastructure compromised in a cyber-attack must be documented clearly and improved where necessary. All government agencies must anticipate a severe attack on critical infrastructure and be ready to mitigate arising dangers to the financial sector.

Some solutions can enable an organization to manage critical infrastructure to reduce cybersecurity risks and realize hardened security. To minimize risks, organizations should strictly conform to the guidelines included in available frameworks and regulations. For example, the NIST Cybersecurity Framework (NIST CSF) outlines an organization’s policies and procedures to identify and manage risks. The framework recommends a five-step model that detects, identifies, protects, responds, and recovering.