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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.

Cybersecurity Trends Affecting Cybersecurity Stocks in 2022

In 2022 cybersecurity is on everyone’s lips. After all, more and more companies are changing their business model to rely on e-commerce. That’s why companies such as Bulletproof Cyber Security have a broad range of customers, from individual clients to corporations and governments. Because of that, many investors decide to put their money into this particular industry, as they can see significant growth opportunities both now and in the future.

Below, you will find information on 4 cybersecurity trends that are currently affecting cybersecurity stocks. You can read more about growing threats of cybercrime, major government investments, cyber warfare and espionage, and many more. Read on and find out if you should invest in cybersecurity stocks!

Growing Number of Cyber Attacks & Cyber Security Jobs

The number of cyberattacks is growing every year. There are several reasons why cybercriminals attack organizations and individuals. Most of them do it for a profit, while some are simply doing it out of spite or revenge. Others do it for political reasons, as they want to disrupt the work of certain companies or even governments. For example, you might have heard about the 2016 hack against the DNC. The group called Fancy Bear was responsible for this attack, and they were also responsible for other similar attacks in countries such as Ukraine and Germany.

If you think that hacking is not a threat to you, think again. Many small and medium-sized businesses don’t pay enough attention to cybersecurity, and this can lead to a significant loss in revenue for them. Even large companies aren’t safe from hacking attacks, which is why you need to make sure that your company has the right cybersecurity measures in place.

More and more people start realizing that cybersecurity is an increasingly important field to work in. Cybersecurity jobs are expected to grow by 19% in 2022, which means that there will be a lot of job opportunities for people who know how to protect organizations and individuals from cyber attacks. This is why many students choose to major in cybersecurity because they can see the huge demand for this kind of work.

Cybercrime Becomes More Sophisticated

Cybercriminals are doing their best to improve their tactics so they can increase their profits. And it seems that they are succeeding in this endeavor. They keep coming up with new attack vectors, spreading viruses through spam emails, using vulnerable IoT devices and DDOS attacks to spread their malware, rooting Android devices, etc.

All of these actions make it harder for security experts and IT specialists to protect their clients’ companies from cyber threats. That’s why you need to invest in cybersecurity solutions if you want to stay protected!

Rise of IoT Devices

Most people know about smartphones, smartwatches, smart TVs, and smart cars – all connected via the Internet via Wi-Fi or cellular networks. Now imagine all these devices combined into one single network – a so-called internet of things (IoT). It sounds really cool and futuristic, but IoT also brings a number of problems with it. For example, the number of IoT devices that can be hacked has almost doubled since 2016.

And here’s another issue: some of these IoT devices are vulnerable to malware infections because they have weak security features built-in by default (e.g., due to poor design quality assurance standards). Other IoT devices come with so little memory that they may not be equipped with an OS that can be patched up to close the security holes that hackers may exploit. This leaves these devices vulnerable to attacks even if they’re not directly connected to the Internet (e.g., when they’re behind a firewall).

Government Investments in Cybersecurity

Governments around the world are investing more and more money into cybersecurity research. They are trying to catch up with cybercriminals, as well as to stay prepared for the future. For example, the US government is set to invest $18 billion into cybersecurity R&D programs in 2021 alone. Furthermore, governments are also working on international cybersecurity standards and regulations, which is important to help businesses and individuals become safer from cyberattacks.

Cyber War and Espionage

Cyberwarfare is a trending topic right now. Governments use the Internet as a new battlefield due to its convenience and accessibility. It’s much easier for countries like Russia and North Korea to launch cyberattacks against their enemies than it is for them to send troops to the battlefield. The same goes for espionage – many countries spy on each other through the Internet, stealing information that could be vital to their own countries’ success.

But these countries aren’t the only ones that benefit from Internet spying. Hackers from all over the world can be hired to work for any government or private organization. That’s why it’s really important to protect your data from being stolen by hackers who can sell it to their clients.

Conclusion

Cybersecurity is an excellent field to invest in. It’s a growing industry with plenty of job opportunities for people who want to provide businesses and individuals with cybersecurity solutions. Companies all over the world need cybersecurity experts to keep their data safe from attacks. The Internet is a powerful tool, but it’s also one that can be used against you. However, with the right tools and knowledge, you can protect your business from cybercriminals and other threats.

4 Important Cryptography and Network Security Principles

The digital world is experiencing explosive growth in computer systems and their interconnections via networks. As a result, the trend has caused an increased dependence of both individuals and organizations on the sensitive information stored and communicated using digital systems.

Meanwhile, security is mandatory in an age of viruses, malware, hackers, electronic fraud, and electronic eavesdropping on a global scale. With recent sophisticated and frequent cyberattacks, network administrators employ security mechanisms to protect data in the network from unauthorized access and different threats.

In particular, security experts have devised mature cryptography and network security solutions. Recent developments in cryptography provide more practical and readily available applications to enforce the practice and principles of network security. In effect, understanding the basics of cryptography is fundamental to keeping networks, systems, applications, and information secure.

Network and Internet Security

Internet and network security are two subdomains of computer security. Internet security specifically relates to internet services like browser security, email security, mobile security, and cloud security. On the other hand, network security covers a multitude of technologies, processes, and devices. It features a set of rules and configurations designed to protect the integrity, confidentiality, and accessibility of computer networks and data using hardware and software technologies. Unquestionably, every organization, regardless of size, industry, or infrastructure, requires a degree of network security capability and solutions in place to prevent it from the ever-growing landscape of cyber threats.

Indeed, the Internet and network represent insecure channels for information exchange, leading to a high risk of intrusion or fraud. Fortunately, organizations can use cryptography to protect data transfer between participants.

Understanding Cryptography

Typically, the technology consists of encryption and decryption algorithms. By design, encryption algorithms perform scrambling of ordinary (plain) text to generate unreadable (block cipher) format for the recipient. Accordingly, the intended receiver restructures the original private data using decryption algorithms.

Cryptography systems require participants to possess some secret information, specifically an encryption key, used in conjunction with the transformation to scramble the content of the message before transmission and unscramble it on reception. In the case of network security technology, participants may require a trusted third party to achieve secure data transmission. Chiefly, they need Certificate Authorities (CAs) responsible for passing out digital certificates or digital signatures to validate the ownership of the private key used for secure communications on a trust basis.

Hash functions also feature predominantly in computer science and in the field of cryptography. They are an essential cryptography method that converts any form of data into a unique string of text. Unlike encryption that is easy to restructure using a decryption key, a hash function is a practice of cryptography that presents a mathematical operation that is easy to perform, but extremely difficult to reverse.

Cybersecurity experts use two popular encryption methods – symmetric and asymmetric. Users employ symmetric encryption, also known as secret-key cryptography, to create a file that uses the same key for encryption and decryption. Designedly, this method deploys the same algorithm to decide a script as the algorithm used to encrypt it originally. That way, it is easy for multiple sources to use the key since participants only need to learn a single code. However, it means there is only a single line of defense against hackers in symmetric cryptography. The advanced encryption standard (AES) is one of the numerous examples of symmetric methods that involves the use of only one secret key to cipher and decipher messages in company and government agencies ‘ communication. AES succeeded the data encryption standard (DES) that was once the US government’s gold standard in methods it used to encrypt sensitive and confidential information. 

The second method, asymmetric encryption, uses more than one key to encrypt and decrypt data. Mainly, systems use two keys, one to encrypt the information and a different one to decrypt it, making data sharing much more secure. In addition, asymmetric systems, also known as public-key cryptography, avail the encryption key to anyone while preserving confidence that only people holding the decryption key can decipher the information. Unquestionably, public-key cryptography offers better security because it uses two different keys.

Role of Cryptography and Network Security

What is the role of cryptography in network security? Cryptography assures confidentiality and data integrity as well as provides user authentication and non-repudiation to the users. Confidentiality deals with how many people can understand transmitted information other than the two parties engaged in a conversation. Fitting cryptography provides data security by ensuring only authorized parties read shared files.

Besides confidentiality, cryptography ensures integrity in networks. So, naturally, the security mechanism makes it difficult for intruders to alter information being transmitted from a sender to a recipient without them being aware of the content changes.

Cryptography also provides authentication by ensuring the sender and the receiver can confirm each other’s identity and the information’s point of origin. Additionally, organizations can deploy cryptography solutions to ensure that information creators cannot deny the intentions behind creating a message or its transmission mode in the future.

Cryptography allows organizations to establish secure connections and sessions. For instance, a client can establish secure sessions with a server using a Handshake Protocol that uses the public key infrastructure (PKI) and establishes a shared symmetric key between communicating parties to ensure confidentiality and integrity of the communicated data.

Other than establishing secure sessions and connections, cryptography enables internet protocol security (IPsec) by authenticating and encrypting IP packets in a communication session. IPsec features protocols for establishing mutual authentication between agents at the beginning of the sessions and negotiating cryptographic keys used during a session. The system protects data flow between a pair of hosts (host-to-host), between a pair of security gateways (network-to-network), or between a security gateway and a host (network-to-host). Simply put, IPsec uses cryptographic security services to protect communications over the IP networks.

Cryptography Best Practices

In essence, cryptography in network security aims to provide encryption and decryption systems that perform perfectly on the above four cyber security principles. However, accomplishing this objective requires both computer programs and appropriate human behavior. Undeniably, the best security systems in the world can be defeated through inadequate security hygiene, such as poor passwords, failure to log out of an active session, weak access control, or sharing confidential information with attackers. In effect, security trams require basic understanding of the algorithms and a basic understanding of previous attacks to devise a plan for the best present-day uses of encryption.

Cybersecurity experts need to pay close attention to their digital networks’ encryption and key management capabilities as the last line of defense for preventing data from falling in the wrong hands. They need to deploy practical applications that make proper use of encryption and message authentication as a core principle to enhance the security posture and data privacy by reducing the attack surfaces. In this case, if an attacker somehow manages to break through other measures like passwords and security firewalls, cryptography becomes the main safeguard keeping them from reading or modifying protected information or other future attacks. 

Red Team VS Blue Team: What’s The Difference?

Be it a small organization or a large one, one of the most efficient and effective ways to detect system or infrastructure vulnerabilities and to prevent potent attacks is by employing red team and blue team strategies.

A red team is an offensive team that conducts penetration testing and vulnerability assessments tests to detect any risks or vulnerabilities in a system. A blue team is basically a response team that reacts and responds to the threats swiftly while upholding the organization’s defense.

Despite the differences, the red team and the blue team have a common goal that is to secure the organization’s security.

Red Team VS Blue Team: Understanding the Nitty Gritties?

To access the strength of the organization’s existing security system, simulated cyber-attacks are used. This exercise is called the Red Team/Blue Team exercise.  It helps identify the areas in the system that need improvement in a low-risk environment.

The testing method helps prevent cyber-attacks and protects sensitive data like business communications, sensitive client data, or trade secrets. This exercise helps in strengthening a network’s security.

Inspired by army training techniques, this exercise is designed to have 2 teams, team red on the offense and team blue as a defense.

The teams comprise of highly trained cybersecurity personnel, the red team is tasked with simulating real-world adversary scenarios in an attempt to compromise the system security and the blue team works within the system to try and identify, respond and prevent the breach in the security firewalls.

These real-time exercises are vital in strengthening a system’s cybersecurity barriers. By engaging in such exercises, organizations can continuously evolve their system security based on their weaknesses and real-world attack techniques. It helps organizations identify,

Weak points in the security system- people, technology, or systems

Areas that require improvements throughout the process chain

Provide first-hand experience to organizations on identifying and containing targeted attacks.

Strengthen the security system and improve response time.

Preparing an action plan to help systems respond to the threat.

Red Team

In the simulated cyber-attacks, the red team acts as an adversary comprising highly-trained security professionals or ethical hackers tasked with identifying and exploiting the weak points of a system’s cybersecurity.

The attacks are designed based on real-world hacking scenarios focused on penetration testing. The team tries to enter into the system through weak points in processes and technology or by tricking or stealing user credentials.

The aim is to enter and penetrate into the system as deeply as possible, accessing confidential data without being detected. Based on the outcome of the attacks, the red team then makes recommendations on how to strengthen the system’s security.

The red team will use any means or tools to exploit weaknesses and vulnerabilities in your system. The examples of red team exercises include:

Penetration testing: Often known as ethical hacking wherein a tester tries to penetrate the system to detect system loopholes using different pen test tools and software.

Social engineering: In this type of test, the tester persuades or tricks an internal member of an organization into disclosing his personal credentials, which allows the tester access to restricted or protected data.

Phishing: Includes sending users or members suspicious emails laced with malware to gain access to their credentials

Using intercepting tools: Tools such as packet sniffers and protocol analyzers can map a network and intercept the flow of data through the network to gain valuable or sensitive information.

Blue Team

The blue team is the response team which comprises security professionals who guide the IT team of the organization on where and how to strengthen the system’s security to stop or prevent cyber-attacks.

The IT team is then tasked with the responsibility of maintaining the system network against any cyber-attacks. The blue team gathers all the information that needs to be protected and conduct risk assessments.

They then identify the key aspects that need to be protected and suggest or strengthen those areas’ security. They also recommend monitoring tools to check for unusual activities and conduct regular checks. Many consider prevention to be the best way to address cyber-attacks.

However, detection and remediation are also equally the three most important aspects of cybersecurity. An organization’s ability to quickly detect, access risk levels, and eject adversaries will prevent the loss of any sensitive information.

In addition, conducting regular team exercises will ensure that the security system is UpToDate, and all weak points are addressed timely.

Examples of blue team exercises:

Performing DNS audits, preventing phishing and DNS attacks.

Performing digital footprint analysis to track the activity of the users and detect anomalies.

Securing the endpoints of the system so that there is no data breach.

Proper configuration of servers and network security system so that there are no lapses in authentication and user verification.

Ensuring network segmentation so that the attackers cannot move laterally in the networks by keeping the compromised system as a pivot and preventing a data breach.

Analyzing logs and memory to check for suspicious activities and to identify risks and vulnerabilities.

Ensuring a robust firewall is used and securing systems by using strong anti-virus and anti-malware software.

Having a good recovery and disaster management system wherein the incident responses are filed swiftly and a combination of measures are taken quickly to thwart the attack or minimize the damage.

Develop remediation policies to return systems to normal as soon as possible after a breach has taken place.

To ensure that the organization’s software is all patched and updated to deal with evolving attacks.

Conclusion

There are many benefits of the Red vs. Blue team exercise. The red team vs. blue team strategy has two different approaches and enables the organization to benefit from two different approaches, thus gaining two perspectives on their network security system. The red team identifies risk and vulnerabilities, whereas the blue team ensures that the defenses are strong enough through constant monitoring. Having this strategy helps the organization improve its security posture by finding gaps and filling those gaps through appropriate measures.

What Moves Gravel-Size Gypsum Crystals Around the Desert?

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Cybersecurity Incident Response Plan in 2025

Many companies are ill-prepared to identify, respond, and protect themselves from cyber-attacks. In an IBM report done by Ponemon Institute, a survey involving at least 3,600 IT and cybersecurity professionals globally found that 77% of enterprises lack a cybersecurity incident response plan. The same study found that 54% of organizations with an implemented incident response plan do not have measures for testing it regularly.

Despite research showing that an effective, rapid response is crucial to containing adverse security events, shortfalls in adequate IR planning have been consistent over the years. Insufficient response planning leaves companies less prepared to manage complex processes required to coordinate an efficient response to an attack.

That said, an incident response plan includes the best practices necessary for managing security breaches or data breaches. It addresses the significant challenges inhibiting organizations from responding to sophisticated cybersecurity threats.

Some of the challenges include:

  • Identifying a suspected malicious activity: Detecting malicious incidents that can affect normal operations is one of the leading challenges to proper cybersecurity incidence response and containment.
  • Establishing an investigation: Attacks often occur without warning, leaving little time for deliberating on the objectives for investigating and thwarting it. The challenge is more severe for enterprises without a formal incident response plan.
  • Determining the impact of a security incident: There is little time to establish what occurred in many cybersecurity incident response instances. For example, is a malicious cyber event due to a DDOS attack, malware attack, data loss, or system hack? The inability leaves a company exposed to more cyber threats.
  • Identifying compromised systems: Quickly identifying the affected systems is pertinent to an effective response to prevent further damage or information loss. Organizations that suffer a cyber-attack need to determine compromised information systems, assets, and networks. Identifying them facilitates a rapid, coordinated response to prevent extensive damage.

Benefits of a Cybersecurity Incident Response Plan

The primary goals of any business include registering continued growth, expansion, and profitability. However, cyber-attacks remain to be one of the biggest detriments to achieving set objectives. Experts project different types of cyber incidents to cost businesses worldwide $10.5 trillion every year by 2025, while a data breach costs affected entities an average of $3.86 million today.

Fortunately, putting in place robust cybersecurity incident response procedures can help businesses mitigate the shortcomings of an attack. The following are some of the reasons why organizations must incorporate incident response planning in their daily cybersecurity processes:

1.      Ensure Business Survival

Business owners must anticipate and be prepared for the worst in the cybersecurity world. For instance, multiple disasters and emergency events, such as the 2020 COVID-19 outbreak, can leave companies exposed to serious risks. New daily normal like mandatory work from home requirements caused most enterprises to realize their unpreparedness in responding to emerging cybersecurity incidents. Incident response planning enables enterprises to identify relevant standard security practices for containing and beginning recovery from an attack. Besides, careful implementation and practicing an incident response plan can minimize the impacts of malicious cyber activities.

2.      Saving Business Processes

Every year comes with new cybersecurity challenges with devastating financial repercussions. Subsequently, more companies have to contend with the possibility of an attack occurring at any time. The fact that at least 60% of organizations that experience a cyber-attack go out of business within six months should be a wake-up call for enterprises lacking sufficient incident response planning.

The large number of companies shutting down their operations following a security breach could be attributed to almost half of organizations lacking a cybersecurity incident response plan. The absence of a documented cybersecurity incident response plan often causes resource wastage and a longer mitigation time when responding to an attack.

In this regard, maintaining a computer security incident handling guide for likely cybersecurity scenarios an organization could face helps remediate unexpected disasters saves precious response time. An incident response process is crucial to developing cybersecurity resilience to ascertain that normal operations continue even in the face of a continually growing threat landscape.

According to the 2020 IBM/Ponemon Cyber Resilient Organization Report, enterprises with formal incident response solutions applied across the entire business environment are less likely to record significant business disruption due to an attack. The report noted that only 39% of enterprises with formal incident response processes experience disruptive cyber incidents compared to 62% of organizations without formal response planning.

On the bright side, there is a growing rate of organizations creating and adopting cybersecurity incident response plans. The IBM/Ponemon study noted a 44% increase in companies maintaining response plans for different types of incidents. However, only 26% of businesses were found to have implemented standard playbooks for responding to anticipated and future incidents, while only 17% have incident response responsibilities for specific scenarios. Incident response processes for specific events detail the approaches and mitigation measures for specific attacks, such as ransomware attacks, phishing attacks, or denial of service attacks.

3.      Defining Incident Response Responsibilities

A company requires a specialized incident response team to manage and contain a malicious cybersecurity event effectively. The teams, often referred to as Computer Security Incident Response Teams (CSIRTs), have the sole responsibility of executing an established cybersecurity incident response plan upon facing cyber-attacks or data breaches.

For example, the IT staff responsible for data protection deals with multiple data security incidents daily. A minute security challenge could turn out to a real incident. In such an event, all CSIRT team members must be aware of their specific roles and responsibilities in alleviating the security incident’s impacts on sensitive data and information systems. An incidence where the stakes are high calls for the incident response team members to perform their security training to perfection.

It is nevertheless pertinent to note that developing a cybersecurity incident response plan alone is not adequate. A CSRIT team must possess the requisite experience and skills required to address possibly high-stress incidents. At a minimum, it is recommended to include malware analysis, security operations center (SOC) analysts, incident managers, and forensics investigators when dealing with a cyber-attack. A clear definition of incident response responsibilities allows for accurate decision-making processes, facilitates in-depth investigations, and provides senior management and key stakeholders the feedback and assurance that an adverse situation is under containment.

Furthermore, current data protection laws, such as the GDPR, make it mandatory for companies that suffer a data breach or any incident that affects sensitive data to report it within a given timeframe. The case for the GDPR is 72 hours, with the time changing in different regulations. The bottom line is that organizations must detect the incident and respond appropriately within the shortest time to make a full report of how it was handled. An incident response reduces the time needed to identify, diagnose, and respond to an incident to ensure timely reporting.

Executing a Cybersecurity Incident Response Plan

The success of an incident response plan in mitigating a security breach heavily depends on the roles and responsibilities of the incident responders. Therefore, organizations should ensure that an incident response plan provides clear guidelines for executing it. For most enterprises, SOC, incident manager, CSIRT, and threat intelligence teams must be involved when executing a response plan.

  • SOC: SOC is a company’s first defensive line that operates round the clock to triage all cybersecurity events and alerts, obtain the evidence of an occurring incident, and establish a suitable response action. SOC analysts have access to an organization’s cybersecurity tools and platforms, such as Endpoint Detection and Response (EDR) solutions and Security Incident Event Manager (SIEM), to have a broad understanding of existing cyber threats. SOC analysts use the platforms to analyze generated alerts that signify malicious events that range from malicious commands run remotely to DDoS attacks. If SOC analysts deem certain events to be high-priority incidents, they escalate them to the incident management team.
  • Incident Manager: The primary role of an incident management team is to provide guidelines and directions for responding to escalating incidents. An incident manager embraces and understands the incidence, identifies and brings together all the key stakeholders, and determines the best course of action for addressing the security event. SOC analysts provide incident managers with evidence, opinion, and advice regarding an ongoing incidence, enabling them to establish the response guidelines. Among other functions, incident managers determine the response procedures to be completed, responders responsible for specific roles, and the timeline for completing them. The incident management also completes all scheduled communications and calls.
  • CSIRT: Members of the CSIRT team are only involved in high-priority and high-profile cybersecurity events. Not to be confused with SOC analysts who possess broad skill sets, CSIRT members consist of professionals with specialized knowledge and skills, such as digital forensics or malware analysis. The CSIRT is responsible for providing technical expertise and usually handles security incidents out of the expertise of SOC team members.
  • Threat intelligence: A threat intelligence team consists of experts tasked with assessing and understanding a business’s cyber threat landscape. For example, the team may scan dark web platforms to determine if sensitive information compromised due to a server attack is up for sale. Also, if a case relates to a malware attack, the intelligence team may perform Opensource Intelligence (OSINT) to establish the malware family and recommend measures for preventing targeted future attacks.

Cybersecurity Incident Response Plan Expert Tips

For an incident response to be effective, the planning process must capture all procedures describing the disaster recovery plan, business continuity plan, and measures for thwarting similar incidents in the future. Most organizations’ recommended cybersecurity incident response plan across all industries should contain six steps, explained below.

1.      Preparation

Preparation is an essential step since it provides a company with a clear blueprint of responding to an incidence comprehensively. The preparation stage entails developing and documenting policies for guiding the response process. Also, security teams create a strategy for handling incidents based on priority and impact on daily organizational operations. Preparation also defines the communication plans and channels that stipulate who is responsible for contacting various CSIRT members.

It is also mandatory to document all roles and responsibilities based on the questions what, when, where, why, how, and who. Lastly, preparation concerns identifying the response team and assigning clear responsibilities to team members, including ensuring they have appropriate access permissions to foster rapid and seamless responses. Team development may involve initial and continuous training processes to equip technical skills required for incident response processes.

2.      Identification

In the identification step, responsible incident response personnel must detect abnormal events that indicate an adverse security incidence. SOC analysts monitor all deployed IT infrastructure and systems to collect and analyze events from different sources, such as security platforms’ alerts, error messages, and log files. They must then correlate the event data to identify the incident and report to CSRIT members as soon as possible. Identifying threat detection and prevention capabilities across detected attack vectors are also crucial in the identification step.

3.      Containment

The primary objective of the containment step is limiting data loss, corruption, or system damage from an ongoing cybersecurity incidence. Also, short-term containment limits initial damage to prevent the incident from escalating to other protected systems and data. Short-term containment procedures may include taking down compromised servers and isolating affected network components.

On the other hand, long-term containment measures involve applying temporary solutions to recover systems taken down by the attack. However, long-term containment focuses on removing backdoors left behind during an attack, compromised accounts, and addressing the incident’s root cause. For instance, a long-term containment solution may include patching vulnerabilities or replacing broken authentication that permits unauthorized access attacks.

4.      Eradication

Eradication in a cybersecurity incident response plan involves removing malware or other malicious components attackers introduce to ensure full system restoration. For example, reimaging removes malicious content by completely wiping and reimaging affected hard drives and systems. Also, applying best security practices, such as applying patches to vulnerable systems and upgrading outdated software, can eradicate attack vectors. Malware scanning using next-generation antivirus products can detect and wipe out malware to protect against viruses.

5.      Recovery

The recovery step assists organizations in restoring normal business operations, bring back all affected systems online and verifying that the threat was completely removed in the eradication phase. Disaster recovery solutions are critical to ensuring full business continuity. As such, business owners and stakeholders have the prerogative of deciding when the recovery process should start based on the CSIRT’s advice. SOC analysts must then monitor the recovered systems and processes continually to ensure all events are normal.

6.      Lessons learned

Within a two-week window, after an incident has occurred, all incident responders must compile essential information regarding the incidents to generate lessons learned. Lessons learned are a vital process for protecting against future attacks.

Comprehensive documentation of how the incident started and how it was responded to is an efficient way of identifying lessons learned to ensure appropriate response measures in future incidents. Documentation should be followed by a published incident report that details a step-by-step review of the entire incident to answer the questions how, who, where, why, and what. Lastly, lessons learned meeting drawing all incident responders to review further the incident could provide the lessons requiring immediate implementation.

What You Need to Know About Data Breaches

Companies have a responsibility to safeguard the data provided by their customers. When these are compromised through a data breach, it can be significantly costly on their part, and their reputation can rapidly go down the drain. What’s worse is that their customers will become vulnerable to identity theft and other nasty cybercrimes.

But what exactly is a data breach, how does it happen, and where does the stolen information go? Let’s dive deeper into this matter.

What is a Data Breach?

A data breach is an accident where information is forcefully taken or stolen physically or virtually from a system without the authorization or knowledge of its owner. The stolen data may contain confidential, sensitive, or proprietary information such as customer data, credit card numbers, and trade secrets.

Cybercriminals can dump this data into deep web forums. In some cases, they sell it to other parties for whatever purpose they intend to use it for. There are also instances where cybercriminals use the stolen data to do more serious crimes such as identity theft.

Luckily, there are ways to minimize, if not prevent, the occurrence of a data breach: using a proxy provider (like this one), teaching employees about proper security measures, and even hiring an in-house IT team, to name a few.

Still, hackers will always try to find loopholes in a security system. Statistics revealed that 25% of data breach accidents are attributed to malware attacks or hacking. Other methods commonly used are as follows:

●      Unintended Disclosure – this happens when sensitive data is exposed due to mistakes or negligence.

●      Insider Leak – whena person of authority or trusted individuals with access to sensitive data steals it.

●      Payment Card Fraud – this method uses physical skimming devices to steal payment card data.

●      Loss or Theft – this data breach occurs when devices such as computers, laptops, or personal drives are lost or stolen.

Shocking Data Breach Accidents

Here are some of the most shocking and embarrassing data breaches in history:

Equifax

In 2017, Equifax became a victim of a massive data breach attack. The breach lasted for over 78 days before it was discovered. As a result, the personal data of over 15 million Brits, 19.000 Canadians, and 148 million Americans were compromised. In addition, the company incurred over $1.7 billion in cost as a result of the incident.

eBay

eBay is among the largest online marketplace in the world. However, in 2014, the company disclosed that it became a victim of a data breach attack. The incident affected over 145 million active users of the platform.

According to eBay, the source of the attack can be traced to several compromised employee login credentials. Some of the data stolen include customers’ names, emails, birthdays, phone numbers, and physical addresses, which can be used for identity theft.

Marriott

Marriott International suffered a huge data breach in its reservation database in 2018. They reported that over 385 million customers were affected by the incident. The compromised data included names, phone numbers, mailing addresses, emails, passport numbers, date of birth, gender, reservation dates, and arrival & departure information.

The company received damages of over $71 million. However, this amount was reimbursed by insurance. But they are still probably going to pay $123 million worth of fines in the UK for failure to comply with their data protection act.

Ashley Madison

In 2015, Ashley Madison, a Canadian online dating and social networking service suffered a catastrophic data breach attack launched by a group named “The Impact Team.”

As a result, many customer’s extramarital affairs and sexual fantasies were exposed online. One of the most prominent individuals involved in the scandal was Josh Duggar. He is the eldest son of Michelle and Jim Bob Duggar, featured in TLC’s reality show “19 Kids and Counting”.

Tips on How to Avoid Data Breaches Accidents

Here are some tips for enterprises on how to avoid data breaches:

●      Hire a Team of IT Experts – hiring a team of expert IT personnel might be expensive. However, experiencing a data breach can be even more costly.

●      Educate Your Employees – minimize the risk of data breach by educating your employees on protecting the company’s sensitive data.

●      Use Security Measures – invest in a reliable proxy provider and security software. Also, conduct regular security audits to ensure that all of your company’s data is safe. Proxy services don’t have to break your budget – you can find reliable yet low-cost providers.

As an employee, there are also several things that you can do to prevent a data breach. This includes the following:

●      Be Mindful With What You Share – avoid allowing cybercriminals to know about your personal life by sharing less on your social media profile.

●      Secure All Your Devices – keep your data safe on your devices by installing security software and using two-factor authentication. It’s also a good idea to use services that allow you to secure your IP address.

●      Be Skeptical and Vigilant – phishing is a common method used by cybercriminals to steal data. This is why it’s important to be vigilant when clicking URLs and opening your emails.

Final Words

In current circumstances, protecting your data is more important than ever. Being a victim of a data breach is a serious matter that may cause you many inconveniences, and sometimes, it may even result in financial loss.

As much as possible, make sure to be careful with the information you share with other parties. Protect it by using a proxy provider, firewall, and anti-virus and malware software. At the same time, you should demand companies have accountability for handling your personal data.

How Can Analytics Boost Healthcare Data Security?

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With modern technologies now more accessible, the healthcare sector is continually shifting to more digitized methods. The World Economic Forum states that 64% of healthcare leaders invest in digital health technology, with 19% prioritizing AI software. These technologies are useful in expediting operations within the healthcare sector. However, it’s worth noting that they can also benefit healthcare cybersecurity — in particular, analytics as a means of heightening data security.

Concerns Surrounding Healthcare Data Security: What You Should Know

Healthcare institutions hold thousands of patient records, each containing sensitive data like patients’ medical records and payment details. When hackers obtain this information, they can use it to gain access to the user’s financial resources. In 2020, the healthcare sector experienced nearly 600 data breaches, a 55% increase from 2019. A report by Bitglass revealed that 67.3% of all healthcare breaches resulted from hacking and IT incidents. This is a huge difference, compared to unauthorized disclosures and loss of devices, which accounted for only 21.5% and 8.7% of breaches, respectively.

Aside from data breaches, medical institutions also face other cyber threats. Ransomware attacks are one of the most prevalent. They compromise healthcare data and entire data systems, making them far more destructive than data breaches. The healthcare industry as a whole has lost over $25 billion to ransomware incidents. Statistics from Emsisoft show that 560 healthcare facilities fell victim to ransomware. Some attacks even forced facilities to halt operations temporarily.

How Data Analytics Can Help

These statistics show why data protection measures have become a necessity within the healthcare sector. Medical institutions can turn to AI and predictive analytics solutions to assist in identifying potential risks. Such software must be capable of deriving actionable information from the organization’s current systems and security products. Otherwise, the data ends up unused.

For example, analytics programs can be configured to pinpoint vulnerable points within an internal system. With machine learning, these programs can analyze huge amounts of data in real-time and use that to forecast aberrant behavior. It can also draw insights from historical data to acquire baseline information on different entities within the system. With these types of analytics programs, the workforce can identify where a cyber-attack might occur and work towards preventing it. This is done by strengthening cybersecurity measures around the weak point or moving the sensitive data to a safer place.

Alternatively, institutions can use analytics programs to plan for what to do should an attack occur. This involves pinpointing priority files and software that the facility needs to maintain the most basic operations. By either boosting the cybersecurity measures surrounding these assets or backing them up in a secure drive, then the facility can continue operations, even after experiencing a cyber attack.

The Need for More Data Experts

Analytics as data protection is an excellent means for boosting cybersecurity within the healthcare sector. However, managing such software often requires the support of data professionals. Consequently, there’s been a steady uptick in demand for data experts in the field of healthcare. This demand has led to the proliferation of the analytics market, with a projected compound annual growth rate of 13.2% through 2022. Meanwhile, the global revenue for big data is forecasted to rise to $274.3 billion in 2022. With a strong market and the heightened demand for data experts, more organizations across all industries aim to hire data experts.

Higher education institutions have opened up both bachelor’s and master’s degrees to online learning in response to this. Online master’s degree courses in data analytics are 100% coursework. They are designed for professionals who want to increase their knowledge and experience in the field but are limited by work schedules or location. These degrees are highly advanced and cover complex topics like forecasting and predictive modeling. While some healthcare jobs now cover some amount of data training, like nurse informatics specialists, an expert with a formal data education will be especially useful for healthcare facilities.

Medical institutions need people who can help in synthesizing, gathering, and interpreting data. Even the FDA has expressed its intent to hire more data experts to “unleash the power of data” in healthcare. Data has plenty of uses aside from informing medical decisions. As shown in this article, it can also improve cybersecurity measures to secure healthcare data and protect against hackers. Therefore, medical institutions must start investing in both security analytics programs and professionals that can manage them.

Dangerous Cybersecurity Threats and Attacks

Current cyber threats are varied, ranging from sensitive data and infrastructure infiltration to brute force and spear-phishing attacks. Despite their variations, one thing is common about cyber threats – they do not discriminate organizations from individuals or small companies from big enterprises when looking for targets. What exactly are these cybersecurity threats making headlines today?

What are Cybersecurity Threats?

A cyber threat, otherwise known as a cybersecurity threat, refers to a malicious activity seeing to damage or steal data. By and large, potential threats that include data breaches, computer viruses, malware, and denial of service attacks disrupt digital life.   

A recent post published by SentinelOne on the history of cybersecurity highlighted the first case of cybersecurity threat. Bob Thomas discovered that a computer program could move across a network, leaving a small trail wherever it went. Bob christened the program creeper and designed it to travel between Tenex terminals.

Ray Tomlinson, the guy who invented email, created the first computer worm by designing the creeper program to self-replicate in a separate incident. It is striking to hark back to where it started and where we are now, in an era of complex cyber threats, such as fileless malware, state-backed attacks, and sophisticated ransomware. It is hilarious to realize that the antecedents to cybersecurity threats were not actively malicious software and did not cause any damage to sensitive information. However, the research foundations of cybersecurity encountered a quick turn to criminality. 

Today, the term cybersecurity threat exclusively describes information security issues. Malicious actors mount cyber threats and attacks against targets in cyberspace. The attacks can be severe, potentially threatening businesses and human lives.

Why are Cybersecurity Threats Such a Big Deal?

Needless to say, cyber threats and attacks matter so much today. They can disrupt system operations, adversely impact personal devices, computers, and IoT devices, making information and services unavailable to authorized users. In addition to that, cyber attacks can result in the loss of valuable information, including medical records, financial data, and personally identifiable information (PII).

What’s worse, cyber threats can aversely affect critical infrastructure. Cyber attacks potentially cause electrical blackouts, lock pipelines, or breach national security secrets. Meanwhile, it remains practically impossible to imagine what life would be without digital technology. It is not an overstatement to say that cyber threats can affect the functioning of life in a society that is highly dependent on technology.

Data Explosion

Information storage on mobile phones and laptops makes it easier for malicious actors to find an avenue into a corporate computer network. Unquestionably, the volume of data is practically exploding by the day. Statistics show that the amount of data created, captured, copied, and consumed globally reached a new high in 2020 and will exceed 180 zettabytes by 2025. Organizations are increasingly collecting user information and storing it in public networks, exposing it to vulnerabilities

Attacks are Becoming Sophisticated

Hackers are devising new ways and tactics to launch sophisticated and frequent threats. The Microsoft Digital Defense Report reveals that “threat actors have rapidly increased in sophistication over the past year, using techniques that make them harder to spot and that threaten even the savviest targets.” A case in point is the nation-state actors engaging in new reconnaissance techniques that increase their chances of compromising high-value targets. In other incidents, criminal groups targeting enterprises migrate their infrastructure to the cloud to hide their activities among legitimate services.

Noteworthy Microsoft report findings include: ransomware has become the most common reason behind incident response engagement; nation-state actors are frequently using credential harvesting, malware, and VPN exploits; IoT threats are constantly expanding and evolving, with the first half of 2020 experiencing an approximate 35 percent increase in total attack volume compared to the second half of 2019.

Attacks are Increasingly Becoming Prevalent   

On top of attack sophistication, cybersecurity threats are becoming more prevalent. An article published on UpGuard mentions that both “inherent risk and residual risk is increasing, driven by global connectivity and usage of cloud services, like Amazon Web Services, to store sensitive data and personal information.” The post further adds that the widespread poor configuration of cloud services paired with more sophisticated cyber criminals means the risk organizations face from successful cyber attacks is rising.  

It is apparent that some industries are more vulnerable to attacks than others simply due to their business nature and the value of information assets. With the recent data breaches news, it is not an exaggeration that there is a considerable upsurge in attacks from increasingly common sources in the workplace. On top of this, the current COVID-19 pandemic that has triggered sudden and unpremeditated work from home approaches is progressively making inroads for cybersecurity threats.

Organizations are Still Operating Below the “Security Poverty Line”

Most organizations and government agencies still operate without proper security practices in place, making them vulnerable to cybersecurity attacks. Despite the increasing data breach incidents, some small businesses spend nothing at all to protect themselves from attacks. Other organizations risk their online safety by operating at or below the ‘security poverty line.’ Oblivious of the approaching danger, enterprises still expose identity and personal information to the web via cloud services.

We can all acknowledge that gone are the days of simple perimeter security tools, like firewalls and antivirus, being the sole security measures for an enterprise. It turns out that C-level executives and business leaders can no longer leave information security responsibility to security personnel.

Regulations Mean You Cannot Ignore Cyber Threats

The General Data Protection Regulation (GDPR), PCI DSS, HIPAA, FISMA, and GLBA are some of the stringent regulations that highlight organizations cannot ignore cybersecurity. Governments and industries around the world are bringing more attention to cyber threats and attacks. One way they are doing this is to enact and require all organizations to comply with regulations requirements. Regulations principally compel cyber attack victims to reveal details about a data breach, approve a data protection officer, require subject consent to process or share user information, and implement controls to enhance data privacy.   

Hacker’s Motivations

Cybercriminals commit their malicious acts for different intents. Mainly, they attack organizations for financial gains. A desire to steal money continues to be the principal motivator behind cyber attacks, according to Verizon’s annual Data Breach Investigations Report. Key takeaways from the report indicate that 86 percent of data breaches are financially motivated, up from 71 percent in 2019. In addition to that, 67 percent of breaches resulted in credit card numbers theft. Other crucial data targets include social security numbers and login credentials.

Typically, financially motivated data breaches include direct theft of victim’s money by hacking their bank accounts or stealing financial information. Besides that, malicious actors can make money by selling stolen credentials on the dark web. A look into the pricing of stolen identities for sale on dark web marketplaces shows that credit card details cost between $0.11 to $986 while hacked PayPal accounts sell between $5 and $1,767.

Besides financial gains, cybercriminals launch attacks for espionage, ideology, and other secondary motivations, such as the desire to steal intellectual property ad trade secrets. Security experts and agencies have accused criminals of meddling in current and corporate affairs, which forms the modern-day version of espionage.

Other than espionage, some cyber actors are motivated by anger. In this case, they leverage their skills and hacking tools to target companies directly. Infamous hacker groups, like Anonymous, also use their expertise to compromise large organizations and call the public’s attention to something the hacktivists believe is a crucial issue. Different causes, such as freedom of information, human rights, or religious believes, drive hacktivism. 

Prevalent Cybersecurity Threats

Cybercriminals and malicious insiders have an abundance of techniques and tactics to deliver attacks. Some of the popular types of attacks and top cybersecurity threats include:

  • Malware: also known as malicious software, is an umbrella term covering viruses, worms, trojans, and other harmful computer programs attackers use to wreak destruction and gain illegal access to systems and information.
  • Phishing and Spear-Phishing:  phishing attacks are a means to lure potential targets into divulging information, such as credentials and bank details. Attackers combine deception and social engineering attacks, such as urgent requests or scare tactics in phishing emails, to persuade victims to take action, such as opening malicious links or attachments. On the other hand, spear-phishing is a sophisticated and more elaborate version of phishing. Unlike phishing attacks that target many victims, spear-phishing targets specific individuals or organizations seeking unauthorized access to systems and data. Cyber actors frequently use social media sites to collect target’s information needed to personalize messages and impersonate users.
  • Ransomware Attacks: ransomware attacks are a form of malicious program that encrypts the victim’s files. Ransomware attackers send a malicious link that installs malware once users click on it. They displace a message to demand a ransom from victims to restore access to systems and data. Typically, hackers show instructions for victims to pay a fee and get a decryption key. Ransomware costs range from a few hundred dollars to thousands, primarily payable in Bitcoin.
  • Internet of Things (IoT) Exploits: currently, there are security vulnerabilities in millions of Internet of Things (IoT) devices. These flaws could potentially allow cybercriminals to knock devices offline or control them remotely. For instance, various vulnerabilities affect TCP/IP stacks responsible for communication in IoT devices.
  • DDoS and DoS: Denial of service (DoS) attacks flood systems with traffic, making resources unavailable to authorized users. Conversely, a distributed denial of service (DDoS) attack uses multiple devices or machines to flood a targeted IT resource. Both DoS and DDoS attacks overload networks, servers, or web applications to disrupt regular services. 

Cybersecurity Best Practices

Businesses and individuals alike should relinquish the ‘not much to steal’ mindset regarding cybersecurity threats. It is entirely out of sync with today’s cybersecurity to think that cybercriminals will pass over you while launching attacks because you run a small business. The factual situation is that 43 percent of cyber attacks still target small businesses, and 60 percent of victims of a data breach go out of business within six months. Individuals are also targets, often because they upload their personal information on insecure mobile devices and public clouds.  

How can your business avoid becoming the next victim of an attack? Here is a list of cybersecurity best practices that businesses and individuals can implement today.

  • Use security tools: One of the first lines of defense in cybersecurity is a firewall and antivirus programs. The Federal Communications Commission (FTC) recommends installing a security tool like a firewall to prevent outsiders from accessing sensitive information on a private network. FTC also cautions organizations to ensure that their operating system’s firewall is enabled. With employees working remotely, businesses should ensure they enable and update their security tools. They can deploy security technologies based on machine learning and artificial intelligence to automate threat detection and response. It would be best if users set antivirus software to run scans regularly and after each update.
  • Cybersecurity awareness training: organizations should train employees in security risks and principles. They can establish security practices and policies for employees, such as requiring strong passwords and implementing appropriate systems and internet use guidelines that highlight penalties for non-compliance with company policies
  • Endpoint security: businesses and individuals should operate secure machines. In that case, they should ensure devices have the latest security software, updated web browsers, and patched operating systems that combat malware and other online attacks.
  • Backup data: make backup copies of crucial data and sensitive information. If possible, implement an automatic backup solution that stores information copies offsite or in safe cloud locations
  • Develop and update security policies: small businesses should shift from operating by word of mouth and intuitional knowledge to documenting protocols and procedures in cybersecurity. Resources such as the FCC Cyberplanner 2.0 and SANS Security Policy Templates provide a starting point for security documentation.
  • Access control: organizations can improve their cybersecurity postures by limiting user access to sensitive information and systems and restricting their authority to install online applications. In this case, no one employee should have access to all data systems. Instead, companies should give users access to specific resources and information that they need for their job. Besides that, insiders should not be allowed to install applications without the IT department’s approval. At the same time, users should use unique, strong passwords to access systems and online accounts to combat insider threats. Businesses can implement robust access control mechanisms, preferably by implementing multi-factor authentication that requires additional information beyond usernames and passwords to grant access. 

3 Easy Ways How to Find a Network Security Key

How to find a network security key is important because wireless technologies have become pivotal to daily business operations and communication. Devices such as smartphones and laptops require a Wi-Fi connection to access internet services from an internet service provider. On the other hand, cyberattacks targeting wireless networks are on the rise. Some of the biggest cybersecurity threats target network security, with social engineering, ransomware, and DDoS leading the pack.

For this reason, a network security key also referred to as a wireless network password, is required to secure a Wi-Fi network from adversaries.

What is a Network Security Key?

A wireless network key is a WIFI password required to access a network. It is a digital signature used to authorize a person to utilize a wireless network’s resources by connecting a new device. The easiest way users establish a secure connection involves selecting a wireless network name and entering a wireless security key. Additionally, a network security key plays a vital role in establishing secure connections between a wireless network, user, and wireless devices connected to the network. As a result, a network security key prevents unauthorized access. Every router or access point usually comes with a default password. It is recommended to change the credentials to a strong password to protect against dictionary attacks immediately.

 Wi-Fi protected access is crucial to ensuring the security of users and wireless devices. Wireless networks secured using security keys are often exposed to multiple cybercrimes. For example, hackers can exfiltrate sensitive information shared through the network and use it to commit more crimes or sell it to the dark web. Cyber adversaries can use stolen personal information to execute identity theft attacks leading to financial losses and unauthorized access to user accounts.

When creating a network security key for a home network or corporate network, it is pertinent to adhere to best password security practices. These include creating lengthy passwords using upper case, lower case, and special characters. However, the passwords should not contain any personal information since hackers can use them to crack the password.

Various Types of a Network Security Key

There are different types of network security keys. Depending on the type of Wi-Fi password, they provide distinct security functions, but their roles remain the same, with the primary one being to regulate who can access a network. Today’s typical network security keys are Wi-Fi Protect Access (WPA/WPA2) and Wired Equivalent Privacy (WEP).

WEP Key

A WEP network security key is a security passcode needed to authorize Wi-Fi-enabled devices to connect to a network. A WEP key permits devices to connect to a wireless network to provide an encrypted environment for sharing sensitive information. The key bit length can vary, but it is used to encrypt information shared between a wireless router and a device. The WEP Key prevents intruders from decoding and reading transmitted messages.

A WEP key consists of several characters that comprise numbers from 0 to 9 and alphabetical letters A through F. For example, a user can create a WEP key like F647AEB8CF. It is also important to note that the required WEP key length could be 58, 26, or 10 characters long. However, this depends on the WEP key version a user is using. A WEP network security can be generated automatically to provide users with hard-to-guess Wi-Fi passwords.

A WEP key provides two methods for encrypting information shared through a wireless network. These are shared key authentication and open system authentication. In the latter, a client does not require to share any credentials with a given access point. On the other hand, a shared key authentication is a four-step challenge handshake. It provides a clear-text challenge to users requesting to be authenticated. The client then sends back the challenge text after encrypting it using an accurately configured WEP key. The access point must decrypt the response to verify the match before completing the authentication process.

WPA/WPA2 Key

WPA2 and WPA keys are deemed to be more secure compared to WEP network security keys. A WPA key is a password or passphrase that a network owner creates to authorize specific users to connect to the network. One reason why a WAP key is popular is that owners can reset the passphrase or password.

WPA2 offers more robust security than WAP since it is designed to use the AES algorithm to encrypt a network. As such, WPA2 is recommended to businesses that require heightened cybersecurity measures for their networks. However, it is vital to note that WPA2 requires hardware with high processing power.

Also, the WAP network security certification program secures data from unauthorized instances of modification risks. It contains a message integrity check function that protects shared data from viruses designed to modify and retransmit data packets automatically.

Different Methods How to Find a Network Security Key

The methods used to find a network security key depend on connecting to a wireless network.

On a router

The default Wi-Fi password is usually located in the router’s exterior written on a small sticker. Other places you can find a router’s network security key include the router manual and packaging. Default new router passwords are known, and it is, therefore, vital to change the passwords using the following steps:

  • Obtain the network’s IP address and input it in the browser’s address bar and press enter to open the login page of the devices control panel.
  • Click on wireless settings or wireless security.
  • Select WPA2 as the preferred network security key and change the credential to a strong password

How to Find a Network Security Key on a Device Running Windows OS

The method used to access a network security key on a device running Windows OS is pretty straightforward. The steps are:

  • Click on the Start menu
  • Search View Network Connections and hit enter
  • Click on the Network and Sharing Center option
  • Select Wireless Properties
  • Click on the Security tab
  • Finally, check the box labeled Show Characters to reveal the network security key.

How to Find a Network Security Key on a Mac Computer

The following are the steps used to locate a network security key on a Mac:

  • Click the search icon
  • Type Keychain Access and press enter
  • In the top right corner, search for the Wi-Fi network
  • Double click on the network
  • Check the box labeled show password
  • Enter the password used to secure the Mac to reveal the network security key.

Resolving Network Security Key Mismatch Errors

Network security key mismatch occurs due to incorrect passwords, wrong security mode, or defective errors. Fix the errors by:

  • Verify the entered password is correct
  • Ascertain the device can support the Wi-Fi network it is connecting
  • Try to restart the device if it still shows a mismatch error after entering a correct password
  • Try changing the type of security protocol used to encrypt the wireless network
  • Finally, try disabling third-party antivirus products installed on the device and update the wireless network drivers

Information Assurance vs Cybersecurity

Are there key differences between information assurance and cybersecurity?

Most references to information assurance and cybersecurity get the two terms mixed up. It is now to the point where people believe they mean the same thing. Many people may consider the two concepts interchangeable.

However, there are fundamental similarities and differences between information assurance and cybersecurity, as described in this article.

What is Information Assurance?

Information assurance is the practice of ensuring that information systems perform as needed and prevent unauthorized access. In addition, the system remains accessible to legal users. The term refers to the technical and managerial measures designed to ensure the confidentiality, integrity, control, availability, and utility of information and computer systems.

Techopedia highlights the five pillars that encompass information assurance: integrity of information, availability, authentication, confidentiality, and nonrepudiation. Information assurance processes protect computer systems by maintaining these five system qualities.

Information assurance has been around a lot longer than cybersecurity, effectively giving the field a broader scope of focus. A post published on Lewis University state that information assurance is closely linked with risk management. A business identifies its information assets and the systems and applications that store, process, and communicate them.

Subsequently, information assurance professionals estimate the susceptibility of the information assets to cyber threats and attacks. These attacks include disclosure, modification, or disruption that result in loss of confidentiality, integrity, and availability. The information assurance process then quantifies the effect of unwanted occurrences on the assets. It guides an organization on devoting resources, personnel, and best practices to protect information assets.

Putting data protection controls in place is just for starters in information assurance. The practice calls for adopting various assessment frameworks and security audits. This helps a business to understand how well the controls can mitigate risks. Robust information assurance involves planning, assessment, information risk management, governance, and the use of cybersecurity measures to protect information assets.

What is Cybersecurity?

United States FEMA’s Ready.gov defines cybersecurity as a process involving preventing, detecting, and responding to security breaches and cyber attacks. Such attacks can result in wide-ranging effects on individuals, organizations, the community, and the national level.

Cybersecurity encompasses various technologies, processes, and practices that individuals and organizations design and develop to protect information assets. Such assets include networks, devices, programs, services, and data from attacks, damage, or unauthorized access.

In cybersecurity, enterprises analyze and determine the risk levels of potential threats to computer networks. A cybersecurity expert’s important work involves preventing information assets from cyber attacks.

Digital Guardian further states that an effective cybersecurity strategy incorporates elements like network security to protect the network from intrusions, data security to protect sensitive information from unauthorized access. Other cybersecurity components include application security to constantly update and test applications for safety and endpoint security for protecting system and data access using devices.

Identity management is also essential for understanding the access that users and entities have in an organization. Cybersecurity also features database and infrastructure security, cloud security, mobile security, restoration of information systems, business continuity planning, and physical security.

That is to say, cybersecurity professionals focus primarily on defending the infrastructure of computer systems from cyber attacks, including computers, networks, and communications, and secondarily on protecting information and data within the cyber domain. If so, cybersecurity does not include protecting information assets outside the cyber domain, which information assurance covers.

How Cybersecurity Relates to Information Assurance

An article published by the University of San Diego asserts that information assurance and cybersecurity involve risk management, maintaining, and safeguarding the high-tech information systems used across different industries to store, process, and distribute crucial data.

Chiefly, information assurance and cybersecurity consider the value of information. In this case, the two fields prioritize different forms of information, including physical and digital data, based on its criticality. The more crucial information gets more security and assurance layers than the less critical data. 

Besides, from the above descriptions of the two terms, cybersecurity can be considered a subset of information assurance that encompasses higher-level concepts like strategy, law, policy, risk management, and training. Information assurance is a broader strategic initiative with a range of processes, including cybersecurity activities.

An organization achieves information assurance objectives partly by implementing cybersecurity measures that protect all information and functional computer systems, including networks, online services, critical infrastructure, and IoT devices.

Information assurance and cybersecurity employ tools, practices, and strategies, including firewalls, user education, penetration testing, endpoint protection tools, and other high-tech systems to eliminate threats and maintain desired service levels.

There is also an overlap between the two fields in terms of work qualifications. Both information assurance and cybersecurity require a downright understanding of security issues and technologies that go into information asset protection. Information assurance managers also include cybersecurity controls in their roles.   

Information Assurance vs Cybersecurity

Every so often, people use the term information assurance that has spread from government use into common parlance synonymous with cybersecurity. However, the two terms have distinguishing differences.

How does information assurance differ from cybersecurity?

  1. Information assurance is an old field that existed before the digital age. Conversely, cybersecurity is an innovative field that keeps pace with the dynamic technology field and the ever-changing threat landscape.
  2. Information assurance processes focus on protecting physical (data in a hard drive and personal computers) and digital information assets. On the other hand, cybersecurity concentrates on safeguarding and managing risks targeting digital information assets.
  3. Information assurance is more strategic in nature, dealing with policy development and implementation to keep information assets secure. On the other hand, cybersecurity deals with the practical reality of setting up security controls and tools to keep information safe.
  4. A cybersecurity career requires strong technical skills and a cybersecurity degree course. Other courses for information security professionals and chief security officers include a master’s degree or bachelor’s degree in information technology, computer science, or computer engineering. A computer network architect also makes a potential cybersecurity specialist. Information assurance ordinarily includes many of the same academic programs as cybersecurity. It may also consist of an information assurance degree with additional courses for data analysis, cryptography, and data protection.
  5. An information assurance professional protects physical data, digital information, and electronic hardware by instituting, updating, and maintaining policies and controls that protect valuable assets. On the other hand, cybersecurity experts, managers, and an information security analyst emphasize defeating cyber adversaries targeting digital information and information systems.

It is essential that the terminologies used in the IT world clearly reflect what we do. Comparing and differentiating the terms information assurance and cybersecurity helps avoid conflict, inefficiencies, violated expectations, and gaps in the measures, processes, and technologies that we implement and maintain to ensure government agencies and organizations meet the two fields’ expectations and goals.

By understanding the similarities and differences between the two fields, individuals can better select the educational and career paths that best match their passion, skills, interests, and goals.

Finally, information assurance versus cybersecurity is not an either/or option for protecting an organization and its customers. Businesses deal with sensitive and confidential information like credit card transactions, confidential data, and communications via email, phone, and mail. So, information assurance is a necessity, and cybersecurity falls underneath the umbrella of this practice.

26 Malware Attacks That Can Devastate Your Network and How to Prevent Them

The threat of malware attacks in our digital world cannot be overstated. Shockingly, 94% of these attacks come from seemingly innocent emails.

Malign software, or malware, refers to a broad umbrella of malicious programs used by cyber attackers to breach secure networks and access sensitive data without authorization.

One notorious example that demonstrates the severity of malware attacks is the infamous WannaCry ransomware incident, which targeted countless victims worldwide and caused significant operational disruptions and financial losses.

Various techniques are deployed by these cyber adversaries to execute malware attacks. The most common among these methods is through deceptive emails, a tactic that is as ubiquitous as it is damaging.

Now, let’s clarify what ‘unauthorized access’ means. In simple terms, it refers to when an entity gains access to a network, system, or data without being granted the necessary permissions. Imagine a stranger entering your house without your knowledge or consent; that’s how malware sneaks into a computer system.

Importantly, it’s not all doom and gloom. There are various preventive measures we can take to safeguard against such attacks. Regularly updating software, installing reputable security programs, practicing caution when opening emails from unknown sources, and refraining from clicking on suspicious links can significantly reduce your risk of falling victim to malware.

While discussing these malicious attacks, it’s important to understand that there are different types of malware, each with its unique behavior and potential damage. These include viruses, worms, trojans, and more. Future sections will delve into more specifics of each type and their corresponding preventive measures.

Cybercriminals utilize cunning methods, such as social engineering, to deceive individuals into installing damaging software. Additionally, they employ command-and-control servers to direct advanced malware to carry out detrimental actions. This includes extracting sensitive data from an infected system remotely.

To better understand cybercriminals’ tactics, let’s delve into the kinds of malware attacks. Using social engineering, cybercriminals may lure their targets into various ambushes, including ransomware, adware, and botnets, among others. For instance, think about how an unsuspecting user could be tricked into installing what seems to be a legitimate app, only to find out later that it was ransomware. Another scenario could involve cybercriminals using social engineering to exploit their victim’s device for crypto-jacking. Real-life illustrations of these attack scenarios can clarify how dangerous these threats can be.

Apart from these, there are harmful payloads that these malware carry, for instance, the siphoning of sensitive data from an infected computer. Tying this back to the broader consequences, it isn’t just about the immediate loss of data. It could lead to loss of business opportunities, or worse, damage the company’s reputation. Thus, understanding these tactics gives us a glimpse of how critical network and data security are in our digital age.

The world of cyber threats is always morphing with new varieties of malware surfacing constantly. Given this scenario, it becomes critical to comprehend the attributes and peculiarities of different types of malware attacks to devise effective preventive strategies.

For instance, consider the pernicious types of malware like ransomware, adware, malvertising, backdoor attacks, Trojan horse, spyware, browser hijacker, keyloggers, bots, botnets, RAM scraper malware, crypto-jacking, and more. Each type has unique characteristics and impacts computer systems in distinct ways. Understanding these specifics is our first line of defense.

Preventing malware attacks isn’t just about understanding them, but also implicates on-going practical measures. Regular software updates can patch vulnerabilities that malware might exploit. Being savvy about potential threats such as suspicious emails or sketchy downloads is another crucial preventive step.

By equipping ourselves with ample knowledge and adopting these precautionary steps, we can signifcantly enhance our chances of thwarting malware attacks.

To delve deeper into this topic, feel free to explore other reputable sources for a more comprehensive understanding and comparison.

Let’s take a look at the most prominent malware exploits today.

These hostile programs, under the collective term “malware,” encompass viruses, worms, trojans, and more nefarious software that hackers employ to gain unauthorized access to data and systems.

For instance, imagine a well-known organization suddenly finding their systems compromised, their confidential data breached and their operations halted. This could be due to a particularly potent strain of ransomware, a type of malware that locks up a system until a ransom is paid. Learn more about ransomware here.

Another prevalent malware is adware. Imagine surfing the internet and your screen gets flooded with unwanted, distracting ads. This is the work of adware, a software that displays unwanted ads and can pose potential risks to your system and privacy. Read more about adware here.

Regardless of whether the malicious software is created by a lone wolf hacker or a state-sponsored entity, the damage inflicted to systems—be it a personal computer, a server, or an entire network—can be substantial.

Let’s delve deeper into the world of malware, understanding their impact and how they shape the cyberthreat landscape!

1.     Ransomware Attacks

Ransomware Types of malware attacks

Ransomware is malicious software that encrypts essential information and denies users from accessing computer systems. Hackers use ransomware attacks to blackmail victims into paying a certain amount of money to get the decryption code. Generally, criminals demand ransom in cryptocurrencies.  If victim delays or fails to pay, their sensitive information will be deleted or sold in dark web forums.

Ransomware attacks result in grave consequences for the affected victims, such as lost business opportunities, network and system downtime, loss of critical information, and destroyed reputation. Ransomware attacks are among the most common types of malware attacks. There were more than 304 million attacks recorded globally in 202. The average cost of a ransomware attack on a business Is $133,000. Security analysts indicate that in 2021, ransomware attacks against businesses occur every 11 seconds—the global cost associated with recovery exceeding $20 billion.

2.     Types of Malware Attacks: Viruses

virus attacks

Computer viruses consist of malware designed to modify software programs by inserting malicious codes into an infected computer. Virus attacks usually use self-replication across a network. Successful virus replication results in higher infection rates in the computer system connected to the infected network.

Cybercriminals create computer viruses for various reasons. The top ones are sabotaging a network to deny essential services to an organization, monetary gains, and proving that a protected IT environment is hackable. Attackers leverage newer technologies to develop and execute more advanced computer virus attacks. Statistics show that at least 6,000 new viruses are created each month.

3.     Adware Attacks

Adware Malware Attacks

Adware attacks are a form of malware attacks that put constant advertisements on the web browser of an infected computer. These programs are often harmless since a perpetrator intends to advertise services or products without a victim’s consent.

Based on their nature, adware attacks can be highly annoying since they pop up at any time when a user is accessing internet services. Adware attacks typically distinguish themselves as legitimate programs or piggyback on other running programs to trick users into clicking and installing them. Adware attacks remain to be highly profitable since they generate revenue automatically once a user clicks them. In 2020, some 1,841,164 people were victims of adware attacks.

4.     Malvertising

Almost every internet user has encountered the following message or something similar when accessing the internet; ‘Your device is running low on memory because of malware infection. Click here now to clean it using antivirus’. However, clicking the advertising banners usually downloads malware or links to a malware-infested website. Malvertising attacks resemble adware attacks.

Malvertising, short for malicious advertising, is an attack method where harmful cyber actors inject malware-loaded advertisements into different advertising websites or networks. Hackers create ads to resemble actual advertising to attract more users and leverage the opportunity to spread malware.

In the second quarter of 2020, malvertising threats remained 72% higher than the normal average as malicious cyber actors exploited opportunities resulting from the COVID-19 pandemic.

5.     Types of Malware Attacks: Backdoor Attacks

Backdoor Types of malware attacks

A backdoor attack is a concealed technique that bypasses deployed encryption or authentication schemes in a network, embedded device, computer, or other digital products.

Attackers execute backdoor attacks by planting malware, such as a trojan horse, in a remote part of a running software program or using a separate malicious program disguised as legitimate software.

Also, backdoor attacks occur when cybercriminals inject malicious code into a device’s operating systems or firmware to monitor all activities done on the device. The attacks enable perpetrators to access encrypted sensitive data or files or gain secure, remote access to a computer or network.

The European Network and Information Security Agency (ENISA) identifies backdoor attacks as one of the primary cybersecurity incidents affecting businesses within the EU and globally.

6.     Trojan Horse

Trojan Horse Malware Attacks

Trojan horse malware programs are developed based on the ancient Greek story where a wooden horse was used to hide soldiers entering Troy. Similarly, a trojan horse malware deceives victims that the malware is legitimate software while concealing a harmful program. For example, attackers can target several individuals with email attachments containing what appears to be genuine software. However, opening the attachment installs a trojan automatically.

Trojan horse malware attacks are dangerous since the payload can execute other attacks. Typical uses of trojan horse attacks include creating a backdoor to provide hackers unauthorized access to infected machines, personal information, online banking details, or to carry out ransomware attacks.

7.     Spyware Attacks

Spyware Malware Attacks

A common type of malware is Spyware. Spyware collects and exfiltrates information from a person’s or an organization’s network and operating systems without the knowledge or consent of the victims.

It is simply a harmful program that attackers deploy to spy on all activities done on a computer or mobile device. The primary essence is gathering and sending sensitive information, such as credit card details, passwords to accounts holding sensitive data, online bank account data, and personally identifiable data, for use in malicious events.

Most spyware programs spy on a user’s activities. Some contain additional capabilities, including installing additional software programs and changing the security settings on a device.

A 2021 report indicates a 79% increase in business malware detections resulting from increased use of spyware and other modes of malware.

8.     Types of Malware Attacks: Browser Hijacker

Browser Hijacker Malware

Cybercriminals use browser hijacker malware, popularly referred to as browser redirect virus, to make unauthorized modifications of a computer web browser settings or configurations without the user’s consent.

Browser hijacker malware enables adversaries to redirect web users to websites, often malicious ones, involuntarily.

The malware attack results in various adverse consequences, including installing multiple toolbars on the hijacked browser, the generation of numerous malvertising or adware pop-up alerts, web pages loading slower than expected, and changing the default search engine to one under the hackers’ control.

Browser hijacking attacks are financially motivated, as attackers use the tactic to generate revenue through adware and malvertising or to install spyware programs to monitor a user’s web browsing habits and activities.

Malwarebytes regards browser hijacker malware to be among the top ten malware attacks targeting businesses today.

9.     Keyloggers

Keylogger Types of malware attacks

Keyloggers, also known as system monitoring or keystroke loggers, are malware types created to monitor and record all the keystrokes on an infected computer’s keyboard. Other types of keyloggers work on mobile devices running different types of operating systems.

A keylogger malware program stores the collected information and sends it remotely to a malicious cyber actor who can then use other tools to extract sensitive information. In comparison to most malware attacks, keyloggers don’t harm the systems they infect but instead facilitate unauthorized access to confidential data. Attackers often use keyloggers to collect sensitive financial and personal information and use it for monetary gains.

10. Bots and Botnets

Botnet Malware

A bot is any device injected with malicious codes under the control of an adversary and used to execute harmful functions. A collection of numerous bots forms a network of harmful bots referred to as a botnet. Botnets may comprise a collection of Internet of Things (IoT) devices, mobile devices, servers, or personal computers.

Threat actors control botnets remotely, and all their operations are undetectable to a computer user. The most common attacks executed using botnets include DDoS attacks, click fraud campaigns, and sending spam or phishing emails.

Bot and botnet attacks are pervasive, with more than 1.3 billion bot attacks detected in the third quarter of 2020.

11. RAM Scraper Malware Attacks

RAM scraper attacks are malware attacks that assist cyber adversaries in finding and stealing personal information. It is a malware type that captures sensitive information from a volatile random access memory.

Modern RAM scraper malware is designed to inject itself into a running process or execute directly on a computer. This allows it to evade detection. Once the malware infects a system, it can be used to read and exfiltrate social security numbers, credit card data, encryption keys, and passwords. RAM scraper attacks can hide the read information in a local storage option or send it to the attackers remotely.

The malware mainly targets businesses since it makes it to the top four malware families targeting points of sale (POS).

12. Crypto-Jacking

Since bitcoin and other cryptocurrencies are experiencing a rapidly rising value, cybercriminals deploy crypto-jacking malware to mine cryptocurrencies using unsuspecting victims’ machines and resources.

The crypto-jacking malware utilizes JavaScript of a victim’s web browser to mine cryptos without the permission or knowledge of the end-user. Essentially, a malicious individual steals the memory, CPU time, power consumption, and other resources.

The more attackers run crypto-jacking malware on the JavaScript, the more the computing power expands. As such, it is crucial to note that crypto-jacking malware is not necessarily harmful but causes the infected machine to run much slower.

A threat landscape report by Symantec shows a 163% increase of crypto-jacking malware in quarter two of 2020.

13. Rootkits

Rootkits consist of malware programs developed to provide attackers with unauthorized access to a software or computer network. A rootkit is designed to mask its presence or other computer programs that make up the rootkit.

Cybercriminals employ various tactics to install and deploy a rootkit, including an automated installation if a user clicks it or direct attacks, such as phishing, vulnerability exploitation, and brute-force attacks, to enable the attackers to install it using administrator access. Also, rootkits can subvert antivirus software to prevent it from detecting malicious programs or activities. As such, they are hard to detect.

Such capabilities make rootkits even harder to remove, especially if they embed themselves in a hardware’s firmware. Rootkit attacks may necessitate the complete replacement of the infected device.

14. Types of Malware Attacks: Crimeware

Crimeware Malware Attacks

Essentially, crimeware is any malicious computer program or set of harmful software developed for the sole purpose of facilitating illegal activities in an online environment. Most browser hijackers, keyloggers, and spyware malware programs fall under the crimeware category.

In particular, an exploit kit, a collection of various tools put together, assists cybercriminals with minimal technical skills to execute an attack. Exploit kits, and other sets of crimeware tools, are readily available on dark websites for an affordable cost.

A Verizon report places crimeware among the top three cybercrimes in 2019 that accounted for at least 93% of attacks and breaches.

15. Hybrid Malware Attacks

Hybrid malware attacks are a modern combination of existing malware attacks, such as ransomware, viruses, trojan horses, and worms. Also, hybrid malware comprises the characteristics of all the incorporated malware programs. As such, hybrid malware is capable of executing multiple attacks simultaneously. For example, a hybrid malware combining the characteristics of a worm and virus can utilize the virus’s characteristics to alter the code of a legitimate program, and at the same time, use the worm’s ability to propagate across a network and reside in a computer’s memory. Therefore, these forms of attack payloads are significant and devastating since multiple malware programs execute simultaneously.

16. Computer Worm Attack

Computer worms are malware programs created to infect a computer or network and self-propagate to infect other connected devices while remaining active on the infected machines. Worms exploit the security failures and vulnerabilities present in the targeted networks before spreading while replicating to all connected devices.

The implication is that a worm attack does not depend on any user actions, such as clicking or installing a malicious program, in spreading and executing, since they propagate automatically if any device is infected. However, in contrast to virus malware attacks, worms may not cause actual harm but may result in increased bandwidth consumption, potentially disrupting network activities and critical IT infrastructure.

17. Drive-By Attacks

A drive-by attack is not a malware attack but rather a method used to distribute different types of malware. Hackers use the method to inject malicious scripts into the HTTP or PHP code used to create a vulnerable website. The approach requires attackers to design the malicious scripts to install malware automatically anytime an individual visits the insecure website, hence the term drive-by attack. Moreover, the adversaries can design malicious scripts to redirect a user to a malware-infested website automatically.

Malware attacks executed using drive-by attacks exploit vulnerabilities present in software installed on a host system, operating system, or web browser. Microsoft recently warned of new drive-by attack methods that target Firefox, Chrome, and Edge users.

18. Fileless Malware Attacks

Fileless malware attacks occur when attackers leverage already installed software programs to execute a malicious attack. In contrast to most malware attacks, a fileless malware threat uses existing applications that are already considered safe. As such, this type of malware does not require a malicious program to execute an attack.

Fileless malware usually exists in a computer’s RAM. It typically accesses default operating system tools, such as Windows Management Instrumentation and PowerShell, to inject the malicious code. Since they are trusted applications that execute system tasks in multiple endpoints, they are prime targets for attackers performing fileless attacks. Fileless malware attacks are among the fastest-growing types of attacks since they registered a 900% growth rate in 2020.

19. Types of Malware Attacks: Rogue Software Programs

Cybercriminals create pop-up windows and alerts that look legitimate, advising users to download security software, update their current systems, or agree to terms to stay protected. Rogue programs trick users into clicking them by displaying alarming messages. For example, the program may trick users into believing that it is an antivirus product that removes all types of malware. Rogue security software is also known as fraudware, rogue scanner, or rogue antivirus. Real-world examples of rogue software include Antivirus Plus, Spy Sheriff, Total Secure 20XX, AdwarePunisher, Registry Cleaner, and WinAntivirus.

However, rogue software programs are malware. It is a common threat targeting desktop computing. The most used infection vectors are spam campaigns, black hat SEO, and malvertising.

20. Harmful Mobile Applications

Mobile Application Malware

Hackers usually reverse-engineer legitimate mobile applications to attract innocent users into installing them. The essence of reverse engineering legitimate application is to attract potential victims. For instance, malicious cyber actors can reverse-engineer premium applications and upload them as a fully paid-for app.

Many users who prefer using cracked apps may install malicious applications introducing malware in their mobile devices. Malicious mobile applications enable attackers to exfiltrate sensitive information, extort users through blackmail, and gain unauthorized access to secured networks.

21. Grayware Attacks

Grayware attacks involve the use of unwanted applications to annoy computer users. Instead of harming the infected computer, grayware programs may cause a system to behave anomaly through events, such as high computing resource usage and lagging.

The term grayware was coined to indicate a thin line between legitimate software programs and virus applications. While grayware may not be harmful, it is vital to detect and remove it immediately to prevent unwanted system behavior or downtime. Examples of grayware include adware and spyware.

22. Exploit Kits

Exploit kits assist hackers in exploiting existing vulnerabilities in an application or computer software program. Exploiting the security flaws provides entry points for inserting various forms of malware in a targeted system. Exploit kits contain unique codes that can deliver malware payloads, identify vulnerabilities, and cause harm. They are common methods of executing malware attacks. Cybercriminals can quickly deploy them on a victim’s computer using drive-by attacks.

23. Logic Bomb

A logic bomb is also known as slag code. It consists of malicious code appended to a software program. It is triggered to execute after a given occurrence, including logical conditions, time, or date.

Logic bomb facilitates supply-chain attacks since the malware is set to ‘explode’ after meeting certain conditions. This means it is undetectable until it is too late to stop the attack.

Logic bombs cause variating levels of destruction. Attackers have infinite sets of conditions to choose from when appending the malicious code. Logic bomb attacks may lead to impacts, such as hard-drive cleaning, file deletion, and sensitive data corruption.

24. Types of Malware Attacks: Droppers

Droppers are computer programs that hackers use to install all types of malware. A dropper is usually free of malicious codes and, therefore, undetectable to antivirus products. Droppers can install a malicious application once it is deployed on the targeted system. It can also download new malware or updates to an already installed malicious software.

25. Polymorphic Engines

A polymorphic engine is commonly called a mutation or mutating engine. It is software capable of transforming an application into another version with different code but provides the same functions. Hackers use polymorphic engines on malware types like viruses and shellcodes to conceal them from antivirus or antimalware scanners.

26. Scareware

Scareware malware is a type of malware that manipulates users. It tricks users into downloading or purchasing unwanted harmful programs out of anxiety, perception of possible threats, or shock.

It is categorized in the same class as other types of malware, including ransomware, rogue security applications, and scam software. These trick or threatens victims that they will be harmed unless they use it. In most cases, the recommended software turns out to be malware.

5 Cybersecurity Issues You Need to be Aware Of

According to Gartner, spending on cybersecurity worldwide is expected to reach $133.7 Billion by 2022. Most cyber threats are motivated by money, but an estimated 25% is a result of espionage. Investing in security staff at the front door is no longer enough. You must know what to protect your company from, especially if you are just now formulating a plan to deal with cybersecurity risk. We will list out five common threats that have the potential to create a significant blow to your business if you are not sufficiently protected. 

Ransomware 

These may be less frequent but are very expensive if you ever come across one. The average cost of a ransomware attack on companies is $133,000. Ransomware software is one of the oldest threats in the book. It involves the use of software that either threatens to block your access to, or to erase your important data. You can only access your data once you pay the ransom money and get a decryption key in return from the hacker. Payment doesn’t guarantee that the hackers will send you the decryption key, though, and you should formulate a policy about what your company will do in the event you become a ransomware victim.

Since most malicious ransomware attacks happen through email, it is important to train your employees to be careful with email spam and clicking on shady links. 

Having a good anti-virus program in place will scan these email messages for you and provide a primary obstacle in the hacker’s way. 

Keep a complete data backup will ensure that even if ransomware software makes it into your system, you are not left vulnerable to the hacker’s demands.

Phishing 

Phishing involves posing as a trusted source like a bank official, or a person of your own company, to gain secret information and use that access to conduct big financial scams. Verizon reports that phishing still makes up approximately 33% of all cybersecurity threats. When you think about the reason for why it’s so prevalent, the answer becomes quite obvious. Phishing involves the least amount of investment and skill compared to other forms of cybersecurity attacks, and offers the highest return for hackers because they get to dictate the size of the transaction. 

Hackers are getting creative and even posing as CEOs in their email messages to big company CFOs, pushing them to process payments to an account that the cybercriminals own, or asking for important credentials and passwords. This has become known as Whaling. 

Spam filters and anti-malware programs are great at preventing email messages from unknown and unwanted sources, but phishing can occur across any communication channel, including messaging and communications apps like Whatsapp, Skype, and social media. This makes it much harder to police and control. We suggest you always double-check identities before you divulge important credentials or make a transaction on your company’s behalf. Companies must train their staff to do the same. 

Data leakage 

The most disheartening and damaging part of any cyberattack is the data loss that comes with a breach. Accenture placed the value of information loss for the average data breach at $5.9 million. 

One of the challenges posed by data leaks is that there are multiple points where it can occur. Smartphones are a huge entry point for such threats. With employees processing important company data and downloading multiple apps on the same phone, the risk to companies is higher than ever. Hackers can quickly take control of phone settings and capture screenshots of important data. 

Data leakage has become an even greater threat with the emergency of IoT and smart devices. Smart devices are seen as cool additions to the office or home but are rarely protected with strong security measures. This makes them the perfect target for data hackers. 

Not all is lost, though. According to Cyber Observer, 80% of all data breaches can be prevented with basic actions. This means putting app locks and passwords on important information in employee smartphones and other devices and regular security checks of all IoT and smart devices in the office.  

Software Vulnerabilities 

According to Forrester’s State of Application Security Report, 2020, software and web application vulnerabilities were the number one and two attack vectors for breaches. Application security is becoming increasingly important to the security posture of companies, and they are spending money and resources on tools to integrate security into the architecture, design, and development phase of the software development lifecycle. While spending on these tools and services helps, the human component should not be overlooked. Dimension Research published a report that stated that more than half of software developers have not received any kind of secure coding training. Without this type of training, developers will continue to create the same software vulnerabilities. Companies such as HackEDU provide secure coding training that is hands-on and educates developers effectively on the vulnerabilities that they are most likely to see, or that reside in their actual codebase.

Insider threat 

We kept this one for last because it’s a difficult one to deal with. According to Verizon, 34% of all data breaches are caused by internal factors. Employees can accidentally or maliciously become the cause of huge cyber attacks. If passwords and important company data are used for personal gain or left unprotected by employees, this can harm the company in the long term. 

Insider threats can develop simply, through a spam email or virus on an employee’s work computer. One way of preventing such incidents is through proper training of staff in security practices and protocol while dealing with confidential data.  

We suggest giving access to sensitive information to the least number of people as you can. The people you choose should be trustworthy and responsible. 

You can also install monitoring software to keep track of what employees are up to on their workstations.  

In conclusion  

We’ve listed out the most common cybersecurity issues that companies face, but there are plenty of other ways cybercriminals can attack your systems. Some things you can do to help protect your company’s assets:

  1. Perform regular data backups
  2. Invest in good anti-malware software 
  3. Provide training on security practices to your staff
  4. Provide training on secure coding practices to your developers

While there’s no guarantee that you won’t be breached if you perform all these steps, there’s a much greater likelihood that you will be if you don’t, and you should incorporate all of these best practices into your company’s operations.

Hardware Firewall vs Software Firewall – Essential Advantages

Organizations and individuals use firewalls as one of the standard security tools. They use the security appliance to regulate ongoing connections and incoming traffic within a network. A firewall acts as a security barrier by detecting and filtering malicious data packets. These packets can potentially harm an entire network and connected personal computers or other physical devices.

Moreover, depending on the firewall’s configuration, it can prevent specific programs or applications from accessing internet connectivity and block outgoing or incoming traffic.

There are two primary groups of firewall models – hardware firewall vs software firewall. They both provide the same security services but use different approaches.

The main difference between the two types of firewalls is that a hardware firewall is a physical, stand-alone device deployed to protect a network from external threats.

On the other hand, a software firewall is a computer program designed to regulate and monitor traffic through applications or port numbers. Here are more details, including the benefits and shortcomings, of each firewall category.

Software Firewall

Every individual computer must be protected using a software firewall. The valuable tool blocks the outside world and adversaries from accessing private and sensitive information on a device.

Software firewalls are designed with a user interface similar to those of other programs to configure various protection features easily. Moreover, a software firewall acts as a packet filter to ensure unusual data packets or those originating from suspicious sources do not enter the network and devices.

It is also essential to note that different software firewalls provide different functions. Most provide basic packet filtering functionalities, while more advanced ones can protect against common email worms or Trojan applications.

Despite the software firewall chosen to secure personal computers, they all contain user-defined controls for permitting or blocking traffic generated by running applications. Other features to expect when choosing a software firewall include web filtering and privacy controls to preserve system and data privacy.

How Does a Software Firewall Work?

Firewall Software runs in a computer directly in the operating system. It is security software designed to discover more regarding the connected network rather than just which port an app uses to access the network resources.

Software firewalls can detect the programs attempting to access the internet and refer to a frequently updated database to establish if the application is safe or harmful. Using this information, the computer firewall can choose to permit or prevent a program from receiving or sending data packets.

Typically, computer users can configure a software firewall to send alerts if it is uncertain whether an app is legitimate or malicious, prompting further action.

The Benefits of Installing Software Firewalls

a.     Pocket-friendly prices: Most types of software firewalls are relatively cheap. Some provide users with a trial version providing most functionalities for a limited time. They continue offering essential functions once the trial period has expired. Besides, some operating systems like Windows contain in-built software firewalls that permit users to configure which applications can access external or local networks.

Many antivirus software packages include a software firewall, and there are also stand-alone product firewall solutions.

b.     Easy installation and configuration: It is simple to install and configure a software firewall. Users follow the installation wizard and proceed to configure the desired security levels in a few clicks. However, organizational software firewalls often require security experts to install and configure all devices connected to the local internal network.

c.      High flexibility: Using a software firewall provides a high degree of flexibility. For example, a user can determine which software programs can access a private or public computer network. As such, they reduce the possibility of malware infections by restricting applications from accessing harmful networks. They are also flexible since users can uninstall them with a single click and install new ones if the need arises.

Are there any drawbacks to using software firewalls? While the security programs are vital to maintaining a robust security environment, they have a significant downside.

The Shortcomings of Software Firewalls

a.     Complex to manage software firewalls for multiple users: They can only secure computers they have been installed in, limiting the ability to protect several computers with a single software firewall of choice. Therefore, business owners must purchase a software firewall for each computer used within the enterprise and configure them independently. Besides, software firewall products function correctly if they are regularly patched with vendor updates. With time, installing and updating the security appliances can become a costly affair and challenging to manage.

b.     Impact on system performance: software firewalls may impact system performance. Like other computer applications, software firewalls require resources, such as memory and CPU, potentially impacting the overall system performance.

c.     High cost for multiple computers: The more systems or computers an organization uses, the higher the cost of purchasing premium software firewall solutions. Numerous computers or systems need a stand-alone software firewall instead of a single software firewall to protect all computers connected to a network.

However, you shouldn’t worry much about the shortcomings. On the brighter side, vendors have developed multiple business-oriented software firewalls to enable centralized installation, configuration, management, and administration.

Software Firewall Choices

Mcafee software firewall

Software firewalls are a popular firewall choice for small businesses and individual home users to protect a home network or a single device. If you have an internet connection, you can rest assured that hackers are scanning to identify vulnerable machines.

A home computer without a personal firewall will be discovered, and there will be outside attempts to gain access to sensitive data. There is a wide choice of software firewall solutions available on the market. Good software firewall solutions include those from well-known names such as MacAfee, Norton, and Fortinet.

Hardware Firewall

Now let us shift our focus to hardware firewalls, also known as physical firewalls. What are physical firewalls? How do they work, and what are the benefits of installing them in company and home networks? How does a hardware firewall differ from a software firewall?

A hardware or physical firewall is a piece of hardware that is the first defensive line against common external attacks and malicious programs. Once deployed on a network, hardware firewalls secure all devices or machines connected to the network.

Unlike software firewalls, hardware firewall solutions effectively filter harmful data packets with little or no security configuration. It is usually deployed behind the network router and utilized to analyze incoming network traffic to identify and filter out specific security threats.

A hardware firewall is similar to a server since it must filter network traffic before it goes into a computer. Instead of a user connecting a network cable directly to the computer, the firewall requires the user first to plug it into the hardware firewall. The best position for deploying a hardware firewall is between a server and the external network to provide a network perimeter barrier against attempted intrusions.

The four primary functionalities of a hardware firewall are:

·      Control traffic or data packets shared between a computer and server intelligently

·      Analyze and filter network traffic based on the firewall configuration rules

·      Remove the burden placed on a computer or server resources. For instance, it can be used in place of software firewalls to protect machines connected to a network

How Does a Hardware Firewall Work?

While the configuration settings depend on the network setup, most physical firewalls have a similar design and operate almost the same. The most vital aspect is to deploy the firewall in an appropriate position, between the external network and the internet, to ascertain it protects the entire network from possible intrusions, malware attacks, and harmful traffic.

One of the crucial components of a hardware firewall is the packet filter responsible for examining and analyzing incoming and outgoing network traffic data. Since incoming network data packets don’t contain information regarding their origin, the hardware firewall applies a set of rules to establish if the data can place connected machines at risk if permitted to access a network. It also runs the data packets through a list of access permissions for different data types. Failing to meet any of the permission requirements causes the firewall to flag data packets as unsafe and blocks them from accessing the network.

Reasons Why You Need a Hardware Firewall

a.    Enhanced security: Hardware firewalls run on their own and separate operating system, independent from that of connected devices. As such, it is less prone to most cyber-attacks that are prevalent in software firewalls. Therefore, a hardware firewall offers better security compared to stand-alone software firewalls.

b.    Centralized protection upgrades and updates: A single hardware firewall can protect several devices connected to the same network. The firewall applies the same protection level across a network since it provides the same configuration settings to all computers. As such, the ability to apply security updates simultaneously protects connected devices and computers from advanced attacks and saves time and resources that would result from updating each computer manually.

c.    Constant security and protection. Once a user deploys a hardware firewall to secure a network, it runs continuously unless someone removes it physically. Besides, in contrast to software firewalls, hardware firewalls do not require monthly or annual subscriptions, eliminating the risks of failed protection due to limited functionalities. Moreover, hardware firewalls do not rely on computer processing power or memory since it is installed directly on the network. Therefore, there is zero chance of exposing a network to cyber threats due to computing resources’ inadequacy.

Disadvantages of Physical Firewalls

What are some of the hardware firewalls’ downsides?

a.     High costs: Dedicated hardware firewalls are more expensive compared to software firewalls. It is a physical device that must be purchased at a given price and requires a professional to install and set up. Adding all the expenses incurred to purchase, install, and deploy a hardware firewall is undesirable to most organizations or individual users.

b.     Requires a physical space: A hardware firewall takes up some physical space. It may not be the first choice for entities with restricted spaces. Furthermore, a hardware firewall requires other physical resources, such as wiring cables, to facilitate a successful installation and deployment.

c.     Requires constant monitoring: Monitoring and maintaining hardware firewalls is challenging since they are highly complex. Once deployed, they require constant monitoring and maintenance to protect against modern and sophisticated cyber threats.

Hardware Firewall Choices

Juniper Hardware Firewalll

Reputable security companies such as Cisco, Fortinet, Juniper, and Sophos manufacure hardware firewalls. Each model has different security features and capabilities.

Some devices are geared toward large corporations, while others are made for small to mid-sized companies.  Hardware firewalls may include functionality that goes beyond that of a typical firewall.  Some of these offer real-time reporting, Data Loss Prevention (DLP), and other security services.

The Case for Hardware Firewall vs Software Firewall

Both software firewalls and hardware firewalls provide enhanced network and device security by inhibiting external threats originating from potent sources such as cybercriminals. The security appliances prevent suspicious connections between the internal network or computer and external threat sources.

Both software firewalls and physical firewalls require configuration and management. Unlike the software firewall that requires users to install the program in each device independently, hardware firewalls allow organizations to protect their entire network from the external world with a single physical device. However, hardware security tools require advanced IT knowledge to install and monitor, while software firewalls are easy to install and monitor from individual computers.

With cybersecurity threats evolving in frequency and sophistication, the two security appliances become better than one. If either of them falls, one can help the other up. Organizations can deploy both software firewalls and hardware firewalls where possible to leverage their unique capabilities in protecting against different kinds of threats. In this case, the hardware firewall can block malware before it enters the network. The software firewall can inspect the network traffic that makes through the physical firewall.