Tag: Security

  • How has Generative AI Affected Security?

    How has Generative AI Affected Security?

    Explore how has generative ai affected security. Understand how this advanced technology is transforming data generation and analysis methods. This blog post explores the complexities of generative AI, focusing on its applications, potential security threats like deepfakes and phishing, and the enhancements it brings to cybersecurity measures. It highlights the ethical considerations and the importance of regulatory frameworks as generative AI technologies continue to evolve. Organizations are encouraged to adopt proactive strategies and foster continuous learning to navigate these challenges effectively. Understanding the impact of generative AI on security is crucial for individuals and institutions alike in ensuring trust and safety in the digital age.

    How Impact of Generative AI on Affected Security: Challenges and Opportunities

    Generative AI refers to a subset of artificial intelligence algorithms that create new content based on existing data. This innovative technology leverages complex models to produce outputs that range from text and images to music and videos. One of the most commonly utilized types of generative AI is generative adversarial networks (GANs). GANs consist of two neural networks: a generator, which creates data, and a discriminator, which evaluates it. Also, This dynamic allows the generator to improve its output by continuously learning from the feedback provided by the discriminator, resulting in increasingly refined content.

    Another significant approach in generative AI is the use of transformers, particularly in natural language processing tasks. Transformers, characterized by their self-attention mechanisms, enable the model to analyze and generate text more efficiently than traditional sequential models. With their capability to understand context and nuances in language, transformers have become vital in applications such as text generation, translation, and summarization.

    The applications of generative AI are vast and growing rapidly. In creative industries, it is being used for generating artwork, designing products, and creating music. In the realm of business, organizations leverage generative AI to automate content generation, personalize customer interactions, and even enhance decision-making processes through predictive analytics. The increasing accessibility of these tools allows more individuals and businesses to harness their potential, signaling a transformative shift in various fields.

    Moreover, as generative AI technologies continue to evolve, their capabilities expand, leading to more innovative applications and solutions. This evolution raises important questions about the implications of these technologies on security and ethics, as the ease of generating convincing yet potentially misleading information poses potential challenges. Understanding the foundational principles of generative AI is essential as we explore its multifaceted impacts on society.

    What is definition of Generative AI?

    Generative AI is a class of artificial intelligence algorithms that create new content based on existing data. This innovative technology uses complex models to produce outputs, which can range from text and images to music and videos. Generative AI leverages methods such as Generative Adversarial Networks (GANs) and transformers to generate new data that is often indistinguishable from content created by humans.

    Key Methods

    • Generative Adversarial Networks (GANs):

      GANs consist of two neural networks, a generator and a discriminator, which work together in a competitive setup to produce high-quality data. The generator creates data, while the discriminator evaluates it, helping the generator improve over time.
    • Transformers:

      Used predominantly in natural language processing tasks, transformers utilize self-attention mechanisms to interpret and generate text with a high degree of contextual understanding and efficiency.

    Applications

    Generative AI is widely used across various domains:

    • Creative Industries: For generating artwork, designing products, and creating music.
    • Business: Automating content generation, personalizing customer interactions, and enhancing decision-making through predictive analytics.
    • Cybersecurity: Detecting anomalies, creating synthetic data, and improving incident response plans.

    The continued advancement of generative AI brings both significant opportunities and challenges as it shapes the future of various industries and technological applications.

    Security Threats Posed by Generative AI

    Generative AI technologies have emerged as powerful tools with the ability to produce content that is indistinguishable from human-generated work. However, this capability has led to worrying security threats that can undermine trust and safety across various digital platforms. One significant concern is the proliferation of deepfakes, which are hyper-realistic manipulated videos or audio clips. Also, These can be used to create fake scenarios that appear legitimate, potentially damaging reputations and misleading the public. For instance, a deepfake video of a public figure could be circulated, leading to severe misinformation and manipulation during critical events, such as elections.

    Another area of concern is the rise of phishing attacks enhanced by generative AI. Cybercriminals now leverage advanced AI-generated content to craft highly convincing emails and messages that can deceive even vigilant users. By producing seemingly authentic correspondence that mimics the writing styles or tones of trusted contacts or organizations. These attackers are able to increase the likelihood of their victims divulging sensitive information. Such sophisticated phishing campaigns can lead to financial loss and data breaches for individuals and companies alike, revealing the urgent need for improved digital literacy among users.

    The implications of these security threats extend beyond individual users, impacting organizations and institutions that rely on the integrity of information. As misinformation spreads through AI-generated content, it becomes increasingly challenging for security professionals to effectively combat these emergent threats. Traditional security measures, focusing primarily on technical defenses and user education, are often ill-equipped to handle the evolving landscape of deception driven by generative AI. As a result, a multi-faceted approach addressing both technology and policy will be essential in safeguarding against the sophisticated risks posed by these advancements. Addressing these challenges is crucial to preserve trust in media and communication channels.

    Generative AI in Security Enhancement

    Generative AI stands at the forefront of innovation in security enhancement. Offering advanced methodologies to fortify defenses against an evolving threat landscape. By harnessing the capabilities of artificial intelligence, organizations are increasingly utilizing this technology to bolster their cybersecurity practices. A key application lies in anomaly detection within network traffic. Traditional systems often struggle to identify subtle deviations from expected patterns due to the vast amount of data processed daily. Generative AI, however, can learn from historical data, enabling it to recognize unusual activities efficiently and address potential breaches proactively.

    Another significant avenue where generative AI proves beneficial is in the creation of synthetic data. Also, This data is essential for training machine learning models without exposing sensitive information. By generating realistic, albeit fictitious, datasets, organizations can enhance their security systems without compromising actual user data. This approach not only enhances the efficacy of the models but also mitigates privacy concerns that arise when utilizing real-world data for testing and development.

    Moreover, organizations are integrating generative AI in innovative ways to improve their incident response capabilities. With AI tools, security teams can simulate a variety of cyber-attack scenarios, allowing them to better understand potential vulnerabilities and develop stronger defenses. Also, This level of preparedness is critical in a world where cyber threats continue to escalate in both frequency and sophistication. Further, generative AI can facilitate more robust verification processes, ensuring that user identities are accurately authenticated while minimizing the risk of fraud.

    Ultimately, the incorporation of generative AI into security practices not only enhances the ability to confront current challenges. But also empowers organizations to anticipate and adapt to future risks effectively. By leveraging generative AI technologies, the security landscape is evolving to become more resilient and responsive to threats posed by malicious actors.

    The Future of Security in the Age of Generative AI

    The rapid evolution of generative AI technologies is driving significant changes in the security landscape. As these advanced systems become increasingly integrated into various sectors, they present both promising opportunities and considerable challenges. Also, primary concern is the ethical implications associated with the use of AI in security. The potential for misuse, such as generating deepfakes or automated phishing schemes. Raises questions about the responsibility of developers and users alike. Stakeholders must engage in deliberate discussions about the ethical boundaries of AI deployment to prevent harmful consequences.

    In tandem with these ethical considerations, the potential for regulatory measures emerges as a critical factor in shaping the future of security. As generative AI continues to advance, thoughtful regulations will be necessary to ensure that its deployment aligns with societal values and norms. Lawmakers and regulatory bodies must work collaboratively with technology experts to develop frameworks that can mitigate risks while fostering innovation. This balance is essential to creating an environment where AI can leveraged for security improvements without compromising public safety.

    Moreover, proactive strategies that anticipate AI-driven security risks are essential. Organizations must prioritize research and development to stay ahead of threats that generative AI may pose. Building strong partnerships across industries can facilitate knowledge-sharing and resource allocation. Helping to create a robust defense mechanism against potential vulnerabilities introduced by AI systems. In this context, education plays a vital role in preparing individuals and organizations to effectively navigate the evolving challenges. By fostering a culture of continuous learning and awareness, stakeholders can cultivate a workforce equipped to address the complexities introduced by generative AI technologies.

    In conclusion, the future of security in the age of generative AI is fraught with both challenges and opportunities. By addressing ethical implications, implementing regulatory measures, and fostering collaboration. Society can harness the potential of these advancements while safeguarding against risks.

    How Can Generative AI Be Used in Cybersecurity?

    Generative AI has the potential to revolutionize the field of cybersecurity by providing advanced tools and techniques to protect against increasingly sophisticated cyber threats. Here are some key ways generative AI can be leveraged in cybersecurity:

    1. Anomaly Detection and Threat Identification

    Generative AI can learn from historical data to identify deviations from normal patterns in network traffic or user behavior. By recognizing anomalies that traditional systems might miss, it can help to detect potential security breaches more effectively and in real-time.

    2. Creation of Synthetic Data

    Generating synthetic data for training machine learning models is a critical application of generative AI. This data, while realistic, does not contain sensitive information, allowing organizations to build and test their cybersecurity systems without risking the exposure of real user data. Also, This process enhances model accuracy and keeps user data private.

    3. Enhancing Incident Response

    With generative AI, cybersecurity teams can simulate various cyber-attack scenarios to understand potential vulnerabilities better. Also, This helps in refining incident response plans and improving preparedness for real-world attacks. By anticipating different attack vectors, organizations can develop more effective defensive strategies.

    4. Automated Phishing Detection

    Generative AI can analyze vast amounts of data to identify patterns commonly associated with phishing attacks. By understanding these patterns, it can help in creating systems that automatically detect and block phishing attempts, thereby protecting users from falling victim to such scams.

    5. Strengthening Authentication Processes

    Generative AI can improve authentication by analyzing patterns in user behavior and detecting anomalies that may indicate fraudulent activities. This makes it harder for unauthorized access and enhances overall security. Additionally, it can help generate more secure authentication techniques that are resilient against common attack methods.

    6. Predictive Security Analytics

    Generative AI can used in predictive analytics to foresee potential cyber threats before they occur. By analyzing trends and patterns in cyber incidents, it can help organizations predict and mitigate potential threats, staying one step ahead of cybercriminals.

    7. Advanced Malware Detection

    Generative AI can significantly enhance malware detection by learning and recognizing new and evolving malware patterns that traditional antivirus programs might miss. It can generate models that identify and respond to malware in real-time, improving preventative measures.

    8. Automated Security Audits

    Generative AI can streamline and automate security audits by generating comprehensive reports on system vulnerabilities and compliance status. This reduces the time and effort required for manual audits and ensures thorough and continuous security assessments.

    Ethical Considerations and Challenges

    While generative AI offers significant advantages in cybersecurity, it also comes with ethical and regulatory challenges. The misuse of generative AI by malicious actors to create deepfakes or automate phishing campaigns is a serious concern. Thus, continuous improvement in AI governance, ethical standards, and regulatory frameworks is essential to ensure that generative AI used responsibly and effectively in cybersecurity.

    By incorporating generative AI into cybersecurity practices, organizations can enhance their ability to detect, prevent, and respond to cyber threats, creating a more secure digital environment.

  • Why Should You Take a Webrtc Leak Test?

    Why Should You Take a Webrtc Leak Test?

    A WebRTC leak test is a type of security test that helps you determine if your WebRTC connections are secure. WebRTC is a technology that enables real-time communication over the internet, such as voice and video chat. However, it can also potentially expose your IP address to third-party services, which can be a privacy concern. By taking a WebRTC leak test, you can check if your IP address is being leaked and take the necessary measures to protect your privacy and security. It is highly recommended to take a WebRTC leak test regularly, especially if you use WebRTC-based applications frequently.

    Webrtc Leak Test: What You Need to Know

    A WebRTC leak test is a tool that can use to check if your browser is leaking your IP address through WebRTC. WebRTC is a technology that allows web browsers to communicate with each other directly, without going through a server. This can use for things like video chat and file sharing. However, it can also use to leak your IP address, which can use to track you or identify you.

    To run a WebRTC leak test, you can use a variety of online tools. One popular tool is BrowserLeaks.com. To use BrowserLeaks, simply visit the website and click on the “WebRTC Leak Test” button. The website will then test your browser for any leaks. If your browser is leaking your IP address, BrowserLeaks will display the IP address that is being leaked.

    If you find that your browser is leaking your IP address, there are a few things that you can do to fix the problem. One option is to use a VPN. A VPN will encrypt your traffic and hide your IP address from websites and other third parties. Another option is to use a browser extension that blocks WebRTC. There are several different extensions available, such as WebRTC Network Limiter and uBlock Origin.

    It is important to note that WebRTC leak tests are not always 100% accurate. Several factors can affect the results of a leak test, such as your browser settings and your network configuration. However, if you are concerned about your privacy, it is a good idea to run a WebRTC leak test regularly to make sure that your browser is not leaking your IP address.

    Tips for Passing a Webrtc Leak Test

    Here are some additional tips for preventing WebRTC leaks:

    • Keep your browser up to date. WebRTC leaks are often caused by outdated browsers.
    • Use a VPN. A VPN will encrypt your traffic and hide your IP address from websites and other third parties.
    • Use a browser extension that blocks WebRTC. There are several different extensions available, such as WebRTC Network Limiter and uBlock Origin.
    • Be aware of the websites that you visit. Some websites may use WebRTC to track you or identify you. If you are concerned about your privacy, you should avoid visiting these websites.
    Secrets to Passing the Webrtc Leak Test Image
    Secrets to Passing the Webrtc Leak Test

    What is WebRTC?

    WebRTC (Web Real-Time Communication) is an open-source project and set of technologies that enable real-time communication capabilities directly within web browsers. It provides a collection of communication protocols and application programming interfaces (APIs) that allow developers to build applications for voice calling, video chat, file sharing, and real-time data exchange without the need for additional plugins or software installations.

    WebRTC was developed by the World Wide Web Consortium (W3C) and the Internet Engineering Task Force (IETF) as a standardized solution for browser-based real-time communication. It supports major web browsers, including Google Chrome, Mozilla Firefox, Microsoft Edge, and Opera.

    The key components of WebRTC include:

    1. MediaStream: This API allows capturing audio and video streams from the user’s device, such as a webcam or microphone, and enables real-time communication with remote peers.
    2. RTCPeerConnection: This API establishes a peer-to-peer connection between browsers, allowing the exchange of audio, video, and data streams. It handles the negotiation and management of network protocols, encryption, and codecs.
    3. RTCDataChannel: This API enables bidirectional communication of arbitrary data between peers, making it suitable for chat applications, file sharing, and other data-intensive use cases.

    WebRTC uses a combination of technologies, including the Session Description Protocol (SDP) for session negotiation, the Interactive Connectivity Establishment (ICE) protocol for NAT traversal and establishing peer-to-peer connections, and the Secure Real-time Transport Protocol (SRTP) for encryption and secure data transmission.

    WebRTC has found applications in various domains, including video conferencing, online gaming, telemedicine, IoT (Internet of Things), and collaborative web applications. It provides a powerful and accessible framework for developers to incorporate real-time communication features into their web applications, enhancing user experiences and enabling new possibilities for interactive online experiences.

    What is a WebRTC leak?

    A WebRTC (Web Real-Time Communication) leak refers to a security vulnerability that can occur when using WebRTC technology in web browsers. WebRTC is a collection of communication protocols and APIs that enable real-time peer-to-peer communication, such as video chat, voice calling, and file sharing, directly in the browser without the need for third-party plugins or software.

    When using WebRTC, the technology may disclose the internal or external IP addresses of the user’s device, even if they are behind a VPN (Virtual Private Network) or a proxy server. This information can potentially access by websites or malicious actors, compromising the user’s privacy and anonymity.

    WebRTC leaks can occur due to the way WebRTC handles network connectivity and peer-to-peer communication. In some cases, the browser may reveal the IP addresses of the user’s device, including their local IP address and public IP address, to the websites or applications they are interacting with. This information can extract using JavaScript APIs provided by WebRTC.

    WebRTC leaks are of particular concern for users who rely on VPNs or proxy servers to hide their real IP addresses and protect their online privacy. The leak of IP addresses can bypass these privacy measures, exposing the user’s true identity and location.

    To mitigate WebRTC leaks, it is advisable to use browser extensions or settings that disable WebRTC functionality or prevent IP address leaks. Many VPN services also offer built-in protection against WebRTC leaks. Additionally, keeping your browser and related software up to date can help minimize the risk of such leaks by patching known vulnerabilities.

    How does a WebRTC leak happen?

    A WebRTC leak can occur due to the way WebRTC handles network connectivity and peer-to-peer communication. When using WebRTC, the technology may inadvertently reveal the user’s internal or external IP addresses, even if they are employing privacy-enhancing measures like VPNs (Virtual Private Networks) or proxy servers.

    Here’s how a WebRTC leak can happen:

    Peer Discovery:

    WebRTC relies on a process called peer discovery to establish direct connections between browsers. During this process, browsers exchange network information, including IP addresses, to establish communication channels.

    IP Address Exposure:

    In some situations, WebRTC may disclose the user’s IP addresses, including both the local IP address (private IP assigned by the router within a local network) and the public IP address (visible on the internet). This information can access by websites or applications utilizing JavaScript APIs provided by WebRTC.

    JavaScript API Usage:

    Websites or web applications can use JavaScript APIs provided by WebRTC, such as RTCPeerConnection or RTCDataChannel, to gather network information about the user. By extracting this information, the websites can obtain the user’s IP addresses, potentially compromising their privacy and anonymity.

    VPN and Proxy Bypass:

    WebRTC leaks can bypass privacy measures like VPNs and proxy servers. While these services may successfully hide the user’s IP address in other areas of their internet activity, WebRTC leaks can inadvertently expose the true IP addresses, making the user vulnerable to tracking and potential identification.

    It’s important to note that WebRTC leaks can occur even if the user is not actively engaging in a video call or other real-time communication. The potential for a leak exists as long as the browser has WebRTC capabilities enabled.

    To mitigate WebRTC leaks, users can employ various measures, such as using browser extensions or settings that disable WebRTC functionality or prevent IP address leaks. Many VPN services also offer built-in protection against WebRTC leaks. Regularly updating browsers and related software can also help minimize the risk by addressing known vulnerabilities.

    How to test for WebRTC leaks

    To test for WebRTC leaks and determine if your browser is vulnerable to IP address exposure, you can perform the following steps:

    Disable WebRTC in your browser settings:

    Most modern browsers allow you to disable WebRTC functionality directly in their settings. Check your browser’s settings or preferences and look for options related to WebRTC. Disable WebRTC and then proceed to the next steps.

    Visit a WebRTC leak testing website:

    Several websites are designed specifically to check for WebRTC leaks. These websites simulate a WebRTC connection and detect if your IP addresses are being exposed. Here are a few popular options:

    Open one of the testing websites and follow their instructions:

    These websites typically provide clear instructions on how to perform the test. Usually, it involves clicking a button to initiate the test and then analyzing the results.

    Review the test results:

    The testing website will display the information it gathers from your browser. Look for any indication of IP address leakage. Specifically, check if it displays your actual local IP address or public IP address, instead of showing the IP address provided by your VPN or proxy.

    • If the testing website shows your real IP addresses, it indicates a WebRTC leak.
    • If the testing website displays the IP address provided by your VPN or proxy, it suggests that your browser is properly configured to prevent WebRTC leaks.

    Take appropriate measures:

    If the test reveals a WebRTC leak, there are several actions you can take:

    • Disable WebRTC in your browser settings.
    • Use browser extensions or plugins specifically designed to address WebRTC leaks, such as WebRTC Leak Prevent or uBlock Origin.
    • Consider using a VPN service or browser with built-in protection against WebRTC leaks.
    • Keep your browser and related software up to date to benefit from the latest security patches.

    Regularly testing for WebRTC leaks is important, especially if you rely on VPNs or proxy servers to protect your privacy. By staying vigilant and taking necessary precautions, you can mitigate the risk of WebRTC leaks and enhance your online privacy.

    How to block WebRTC leaks

    To block WebRTC leaks and prevent your IP addresses from being exposed, you can take the following measures:

    Disable WebRTC in your browser settings:

    Most modern web browsers have settings that allow you to disable WebRTC functionality. By doing so, you can effectively prevent WebRTC leaks. Here’s how to disable WebRTC in some popular browsers:

    • Google Chrome: Type “chrome://flags/#disable-webrtc” in the address bar, then set the “WebRTC Stun origin header” flag to “Enabled” and restart the browser.
    • Mozilla Firefox: Type “about:config” in the address bar, search for “media.peerconnection.enabled,” and set it to “false.”
    • Microsoft Edge: WebRTC cannot be completely disabled in the Edge browser. However, you can use browser extensions (mentioned in the next step) to prevent WebRTC leaks.
    • Opera: Type “opera://flags/#disable-webrtc” in the address bar, then set the “WebRTC Stun origin header” flag to “Enabled” and restart the browser.

    Use browser extensions or plugins:

    There are several browser extensions and plugins available that can help prevent WebRTC leaks. These tools typically disable or modify WebRTC behavior to ensure IP address privacy. Here are a few popular options:

    • WebRTC Leak Prevent (Chrome, Firefox, Opera)
    • uBlock Origin (Chrome, Firefox, Opera, Microsoft Edge)
    • WebRTC Control (Chrome)
    • ScriptSafe (Chrome)
    • NoScript (Firefox)

    Install the appropriate extension for your browser and configure it to block WebRTC leaks.

    Utilize VPNs with WebRTC leak protection:

    If you use a VPN (Virtual Private Network) service, ensure that it offers built-in protection against WebRTC leaks. Not all VPNs provide this feature, so check the VPN provider’s documentation or contact their support to confirm their WebRTC leak prevention capabilities.

    Regularly update your browser and related software:

    Keep your web browser and any related software up to date. Software updates often include security patches that address known vulnerabilities, including WebRTC leaks. By staying updated, you can reduce the risk of WebRTC-related security issues.

    It’s worth noting that disabling or modifying WebRTC functionality may affect the performance or functionality of some web applications that rely on WebRTC for real-time communication. If you encounter any issues, you can re-enable WebRTC or adjust the settings accordingly.

    By combining these preventive measures, you can minimize the likelihood of WebRTC leaks and protect your IP address privacy while using web browsers.

    Summary

    WebRTC is a powerful technology that enables us to communicate in real time with other users over the web. However, there are some risks associated with the use of WebRTC, such as the possibility of IP address exposure. That’s why WebRTC leak tests are important, as they help to safeguard your privacy and protect your online security. In this blog post, we’ve discussed what WebRTC is, how it works, and what a WebRTC leak is. We’ve also provided some tips on how to prevent WebRTC leaks from happening, such as using a VPN or browser extension that blocks WebRTC. By taking the necessary measures, you can enjoy the benefits of WebRTC technology while keeping your online privacy and security intact.

  • Security Information and Event Management Systems (SIEMS)

    Security Information and Event Management Systems (SIEMS)

    Security Information and Event Management Systems (SIEMS) automate incident identification and resolution based on built-in business rules to help improve compliance and alert staff to critical intrusions. IT audits, standards, and regulatory requirements have now become an important part of most enterprises’ day-to-day responsibilities. As part of that burden, organizations are spending significant time and energy scrutinizing their security and event logs to track; which systems have existed accessed, by whom, what activity took place, and whether it was appropriate.

    Here is the article to explain, Essay of the Security Information and Event Management Systems (SIEMS)!

    Organizations are increasingly looking towards data-driven automation to help ease the burden. As a result, the SIEM has taken form and has provided focused solutions to the problem. The security information and event management systems market is driven by an extremely increasing need for customers to meet compliance requirements as well as the continued need for real-time awareness of external and internal threats. Customers need to analyze security event data in real-time (for threat management) and to analyze and report on log data and primarily this has made the security information and event management systems market more demanding. The market remains fragmented, with no dominant vendor.

    This report entitled ‘Security Information and Event Management Systems (SIEMS) Solutions’ gives a clear view of the SIEM solutions and whether; they can help to improve intrusion detection and response. Following this introduction is the background section; which deeply analyzes the evolution of the SIEM, its architecture, its relationship with log management, and the need for SIEM products. In the analysis section, I have analyzed the SIEM functions in detail along with real-world examples. Finally, the conclusion section summarizes the paper.

    What is the Meaning and Definition of SIEMS?

    Security Information and Event Management Systems solutions are a combination of two different products namely, SIM (security information management) and SEM (security event management). SIEMS also like to know as Network Intrusion Detection Systems (NIDS); SIEM technology provides real-time analysis of security alerts generated by network hardware and applications. The objective of SIEM is to help companies respond to attacks faster and to organize mountains of log data. SIEM solutions come as software, appliances, or managed services. Increasingly, SIEM solutions stand existing used to log security data and generate reports for compliance purposes. Though Security Information Event Management and log management tools have been complementary for years, the technologies that exist expect to merge.

    Evolution of SIEM:

    SIEM emerged as companies found themselves spending a lot of money on intrusion detection/prevention systems (IDS/IPS). These systems helped detect external attacks, but because of the reliance on signature-based engines, a large number of false positives stood generated. The first-generation SIEM technology existed designed to reduce this signal-to-noise ratio and helped to capture the most critical external threats. Using rule-based correlation, SIEM helped IT detect real attacks by focusing on a subset of firewall and IDS/IPS events that violated policy.

    Traditionally, SIEM solutions have been expensive and time-intensive to maintain and tweak, but they solve the big headache of sorting through excessive false alerts and they effectively protect companies from external threats. While that was a step in the right direction, the world got more complicated when new regulations such as the Sarbanes-Oxley Act and the Payment Card Industry Data Security Standard followed much stricter internal IT controls and assessment. To satisfy these requirements, organizations exist required to collect, analyze, report on, and archive all logs to monitor activities inside their IT infrastructures.

    The idea is not only to detect external threats but also to provide periodic reports of user activities and create forensics reports surrounding a given incident. Though SIEM technologies collect logs, the process only a subset of data related to security breaches. They weren’t designed to handle the sheer volume of log data generated from all IT components; such as applications, switches, routers, databases, firewalls, operating systems, IDS/IPS, and Web proxies.

    Other evolutions;

    With an idea to monitor user activities rather than external threats, log management entered the market as a technology with architecture to handle much larger volumes of data and with the ability to extend to meet the demands of the largest enterprises. Companies implement log management and SIEM solutions to satisfy different business requirements, and they have also found out that the two technologies work well together. Log management tools exist designed to collect reports and archive a large volume and breadth of log data, whereas SIEM solutions stand designed to correlate a subset of log data to point out the most critical security events.

    On looking at an enterprise IT arsenal, it is likely to see both log management and SIEM. Log management tools often assume the role of a log data warehouse that filters and forwards the necessary log data to SIEM solutions for correlation. This combination helps in optimizing the return on investment while also reducing the cost of implementing SIEM. In these tough economic times, it is likely to see IT trying to stretch its logging technologies to solve even more problems. It will expect its log management and SIEM technologies to work closer together and reduce overlapping functionalities.

    Relation between SIEM and log management:

    Like many things in the IT industry, there’s a lot of market positioning and buzz coming around regarding how the original term of SIM (Security Information Management), the subsequent marketing term SEM (Security Event Management), the newer combined term of SIEMS (Security Information and Event Management Systems) relate to the long-standing process of log management. The basics of log management are not new. Operating systems, devices, and applications all generate logs of some sort that contain system-specific events and notifications. The information in logs may vary in overall usefulness, but before one can derive much value

    out of them, they first need to enable, then transported, and eventually stored. Therefore the way that one does gather this data from an often distributed range of systems; and get it into a centralized (or at least semi-centralized) location is the first challenge of log management that counts. There are varying techniques to accomplish centralization, ranging from standardizing on the Syslog mechanism; and then deploying centralized Syslog servers, to using commercial products to address the log data acquisition, transport, and storage issues.

    Other issues;

    Some of the other issues in log management include working around network bottlenecks, establishing reliable event transport (such as Syslog over UDP), setting requirements around encryption, and managing the raw data storage issues. So the first steps in this process are figuring out what type of log and event information is in need to gather, how to transport it, and where to store it. But that leads to another major consideration about what should one person want to do with all those data. It is at this point where the basic log management ends and the higher-level functions associated with SIEM begin.

    SIEM products typically provide many of the features that remain essential for log management; but add event-reduction, alerting, and real-time analysis capabilities. They provide the layer of technology that allows one to say with confidence that not only are logs existing gathered but they are also living reviewed. SIEM also allows for the importation of data that isn’t necessarily event-driven (such as vulnerability scanning reports) and it knows as the “Information” portion of SIEM.

    SIEM architecture:

    Long-term log management and forensic queries need a database built for capacity, with file management and compression tools. Short-term threat analysis and correlation need real-time data, CPU, and RAM. The solution for this is as follows:

    • Split the feeds into two concurrent engines.
    • Optimize one for real-time and storage up to 30 days of data. (100-300GB)
    • Optimize the second for log compression, retention, and query functions. (1TB+)

    The block diagram showing the architecture of the SIEM is as follows:

    A collector is a process that gathers data. Collectors exist produced in many shapes and sizes from agents that run on the monitored device, to centralized logging devices with pre-processors to split stream the data. These can be simple REGEX file parsing applications, or complex agents for OPSEC, LEA, Net/WMI, SDEE/RDEP, or ODBC/SQL queries. Not all security devices are kind enough to forward data, and multiple input methods, including active pull capabilities, are very essential. Also, since SYSLOG data do not encrypt, it may need a collector to provide encrypted transport.

    Analysis engine;

    A threat analysis engine will need to run in real-time, continuously processing and correlating events of interest passed to it by the collector, and reporting to a console or presentation layer application about the threats found. Typically reporting events that have happened for 30 days is sufficient for operational considerations. A log manager will need to store a great deal of data, and may take either raw logs or filtered events of interest, and need to compress store, and index the data for long-term forensic analysis and compliance reporting. Capacity for 18 months or more of data is likely to require.

    Year-end closing of books and the arrival of the auditors often necessitate the need for 12 months of historic data plus padding of several months while books exist finalized and an audit to complete. At the presentation layer, a console will present the events to the security staff and managers. This is the primary interface to the system for day-to-day operations, and should efficiently prioritize and present the events with a full history and correlation rationale.

    SIEM functions:

    With some subtle differences, there are four major functions of SIEM solutions. They are as follows:

    1. Log Consolidation; centralized logging to a server
    2. Threat Correlation; the artificial intelligence used to sort through multiple logs and log entries to identify attackers
    3. Incident Management; workflow – What happens once a threat identified? (link from identification to containment and eradication). Notification – email, pagers, informs to enterprise managers (MOM, HP Openview…). Trouble Ticket Creation, Automated responses – execution of scripts (instrumentation), Response and Remediation logging
    4. Reporting; Operational Efficiency/Effectiveness, Compliance / SOX, HIPPA, FISMA, and Ad Hoc / Forensic Investigations.

    Coming to the business case for SIEM, all engineers exist perpetually drawn to new technology; but, purchasing decisions should by necessity based on need and practicality. Even though the functions provided by SIEM are impressive they must choose only if they fit an enterprise’s needs.

    Why use a SIEM?

    There are two branches on the SIEM tree namely, operational efficiency and effectiveness, and log management/compliance. Both are achievable with a good SIEM tool. However since there is a large body of work on log management, and compliance has multiple branches; this coursework will focus only on using a SIEM tool effectively to point out the real attackers; and, the worst threats to improve security operations efficiency and effectiveness.

    It can believe that the most compelling reason for a SIEM tool from an operational perspective is to reduce the number of security events on any given day to a manageable, actionable list, and to automate analysis such that real attacks and intruders can discern. As a whole, the number of IT professionals, and security-focused individuals at any given company has decreased relative to the complexity and capabilities demanded by an increasingly inter-networked web.

    While one solution may have dozens of highly skilled security engineers on staff pouring through individual event logs to identify threats, SIEM attempts to automate that process and can achieve a legitimate reduction of 99.9+% of security event data while it increases the effective detection over traditional human-driven monitoring. This is why SIEM prefer by most companies.

    Reasons to use a SIEM:

    Knowing the need for a SIEM tool in an organization is very important. A defense-in-depth strategy (industry best practice) utilizes multiple devices: Firewalls, IDS, AV, AAA, VPN, User Events – LDAP/NDS/NIS/X.500, Operating System Logs… which can easily generate hundreds of thousands of events per day, in some cases, even millions.

    No matter how good a security engineer is, about 1,000 events per day is a practical maximum that a security engineer is about to deal with. So if the security team is to remain small they will need to equip with a good SIEM tool. No matter how good an individual device is; if not monitored and correlated, each device can bypass individually, and the total security capabilities of a system will not exceed its weakest link.

    When monitored as a whole, with cross-device correlation, each device will signal an alert as it stands attacked raising awareness and threat indications at each point allowing for additional defenses to exist brought into play, and incident response proportional to the total threat. Even some of the small and medium businesses with just a few devices are seeing over 100,000 events per day. This has become usual in most of the companies says the internet.

    Real-world examples:

    Below are event and threat alert numbers from two different sites currently running with 99.xx% correlation efficiency on over 100,000 events per day, among which one industry expert referred to as “amateur” level, stating that 99.99 or 99.999+% efficiency on well over 1,000,000 events per day is more common.

    • Manufacturing Company Central USA – 24-hour average, un-tuned SIEM day of deployment
    • Alarms Generated 3722
    • Correlation
    • Efficiency 99.06%
    • Critical / Major
    • Level Alerts 170
    • Effective Efficiency 99.96%

    In this case, using a SIEM allows the company’s security team (2 people in an IT staff of 5), to respond to 170 critical and major alerts per day (likely to decrease as the worst offenders exist firewalled out, and the worst offenses dealt with), rather than nearly 400,000.

    • Financial Services Organization – 94,600 events – 153 actionable alerts – 99.83% reduction.
    • The company above deals with a very large volume of financial transactions, and a missed threat can mean real monetary losses.

    Concerning the Business Case, a good SIEM tool can provide the analytics, and the knowledge of a good security engineer can automate and repeat against a mountain of events from a range of devices. Instead of 1,000 events per day, an engineer with a SIEM tool can handle 100,000 events per day (or more). And a SIEM does not leave at night, find another job, take a break or take vacations. It will be working always.

    SIEM Selection Criteria:

    The first thing one should look at is the goal. (i.e.) what should the SIEM do for them. If you just need log management then make the vendor can import data from ALL of the available log sources. Not all events exist sent via SYSLOG. Some may exist sent through:

    • Checkpoint – LEA
    • Cisco IDS – RDEP/SDEE encryption
    • Vulnerability Scanner Databases – Nessus, Eye, ISS…
    • AS/400 & Mainframes – flat files
    • Databases – ODBC/SQL queries
    • Microsoft .Net/WMI

    Consider a product that has a defined data collection process that can pull data (queries, retrieve files, WMI API calls…), as well as accept input sent to it. And it is essential to be aware that logs, standards, and formats change, several (but not all), vendors can adapt by parsing files with REGEX and importing if one can get them a file. However, log management itself is not usually an end goal. It matters about for what purpose these logs are used. They may be used for threat identification, compliance reporting, or forensics. It is also essential to know whether the data captured is in real-time. If threat identification is the primary goal, 99+% correlation/consolidation/aggregation is easily achievable, and when properly tuned, 99.99+% efficiency is within reach (1-10 actionable threat alerts / 100,000 events).

    Reporting;

    If compliance reporting is the primary goal, then consider what regulations one is subject to. Frequently a company is subject to multiple compliance requirements. Consider a Fortune 500 company like General Electrics. As a publicly-traded company, GE is subject to SOX, as a vendor of medical equipment and software; they are subject to HIPPA, as a vendor to the Department of Defense, they are subject to FISMA. GE must produce compliance reports for at least one corporate division for nearly every regulation.

    Two brief notes on compliance, and one should look at architecture: Beware of vendors with canned reports. While they may be very appealing, and sound like a solution, valid compliance and auditing is about matching output to one’s stated policies, and must be customized to match each company’s published policies. Any SIEM that can collect all of the required data, meet ISO 177999, and provide timely monitoring can be used to aid in compliance. Compliance is a complex issue with many management, and financial process requirements; it is not just a function or report IT can provide.

    Advanced SIEM Topics:

    Risk-Based Correlation / Risk Profiling; Correlation based on risk can dramatically reduce the number of rules required for effective threat identification. The threat and target profiles do most of the work. If the attacks are risk profiled, three relatively simple correlation rules can identify 99%+ of the attacks. They are as follows:

    • IP Attacker – repeat offenders
    • IP Target – repeat targets
    • Vulnerability Scan + IDS Signature match – Single Packet of Doom

    Risk-Based Threat Identification is one of the more effective and interesting correlation methods, but has several requirements:

    • A Metabase of Signatures – Cisco calls the attack X, ISS calls it Y, Snort calls it Z – Cross-Reference the data
    • Requires automated method to keep up to date.
    • Threats must be compiled and threat weightings applied to each signature/event.
    • Reconnaissance events are low weighting – but aggregate and report on the persistent (low and slow) attacker
    • Finger Printing – a bit more specific, a bit higher weighting
    • Failed User Login events – a medium weighting, could be an unauthorized attempt to access a resource or a forgotten password.

    Buffer Overflows, Worms, and Viruses -high weighting -potentially destructive; events one needs to respond to unless one has already patched/protected the system.

    • The ability to learn or adjust to one’s network Input or auto-discover; which systems, are business-critical vs. which are peripherals, desktops, and non-essential
    • Risk Profiling: Proper application of trust weightings to reporting devices (NIST 800-42 best practice); can also help to lower “cry wolf” issues with current security management

    Next-generation SIEM and log management:

    One area where the tools can provide the most needed help is compliance. Corporations increasingly face the challenge of staying accountable to customers, employees, and shareholders, and that means protecting IT infrastructure, customer and corporate data, and complying with rules and regulations as defined by the government and industry. Regulatory compliance is here to stay, and under the Obama administration, corporate accountability requirements are likely to grow.

    Log management and SIEM correlation technologies can work together to provide more comprehensive views to help companies satisfy their regulatory compliance requirements, make their IT and business processes more efficient, and reduce management and technology costs in the process. IT organizations also will expect log management and intelligence technologies to provide more value to business activity monitoring and business intelligence. Though SIEM will continue to capture security-related data, its correlation engine can be re-appropriated to correlate business processes and monitor internal events related to performance, uptime, capability utilization, and service-level management.

    We will see the combined solutions provide deeper insight into not just IT operations but also business processes. For example, we can monitor business processes from step A to Z; and, if a step gets missed we’ll see where and when. In short, by integrating SIEM and log management; it is easy to see how companies can save by de-duplicating efforts and functionality. The functions of collecting, archiving, indexing, and correlating log data can be collapsed. That will also lead to savings in the resources required and in the maintenance of the tools.

    CONCLUSION:

    SIEMS (security information and event management systems) is a complex technology, and the market segment remains in flux. SIEM solutions require a high level of technical expertise and SIEM vendors require extensive partner training and certification. SIEM gets more exciting when one can apply log-based activity data and security-event-inspired correlation to other business problems. Regulatory compliance, business activity monitoring, and business intelligence are just the tip of the iceberg. Leading-edge customers are already using the tools to increase visibility; and the security of composite Web 2.0 applications, cloud-based services, and mobile devices. The key is to start with a central record of user and system activity; and, build an open architecture that lets different business users access the information to solve different business problems. So there is no doubt in SIEM solutions help the intrusion detection and response to improve.

    Security Information and Event Management Systems (SIEMS) Essay Image
    Security Information and Event Management Systems (SIEMS) Essay; Image by Pete Linforth from Pixabay.
  • 10 Security Issues in Cloud Computing Essay

    10 Security Issues in Cloud Computing Essay

    10 Security Issues in Cloud Computing Benefits Essay; Cloud security, otherwise called cloud computing security, comprises a bunch of technologies, procedures, controls, and policies that cooperate to ensure cloud-based infrastructure, data, and systems. These safety efforts arrange to secure cloud data, protect customers’ privacy, and also support regulatory compliance just as setting verification rules for singular devices and users.

    Here is the article to explain, 10 Security Issues in Cloud Computing Benefits Essay!

    Cloud computing offers three different segments to consumers – Infrastructure, Platform, and Application /Service as a service. Each of them provides different operations and services corresponding to business and individual. You may like to know, Bitcoin Use Cases Technology Essay; There are various concerns regarding security in a Cloud computing environment; also Servers & Applications accessibility, Data Transmission, VM Security, Network Security, Data Security, Data Privacy, Data Integrity, Data Location, Data Availability, Data Segregation.

    The following 10 Security Issues in Cloud Computing below are;

    Servers & Applications accessibility;

    In Conventional data centers, the admin uses to access the servers in a restricted or controlled way through direct or on-premise connections. In Cloud architecture, the admin can access the system only through the internet which increases the risk and exposure of connection. While accessing the data by user, data access issues are primarily associated with security policies provided to users. To avoid unauthorized data access, that case, security policies should adhere to the cloud.

    Data Transmission;

    The data exists always transmitted from one end to another end in encrypted formatted. Also, SSL/TLS data transmission protocol is used here. By providing different access controls to Cloud providers for data transmission like authentication authorization, auditing for using resources, and by ensuring the availability of the Internet-facing resources at the cloud provider. To interrupt and change the communication, an intruder can place themselves in between the communication to the user; also, this type of cryptographic attack stands called ‘Man-in-the-middle’.

    Virtual Machine Security;

    Virtual machines are dynamic seamlessly moved between physical servers. Virtualization is one of the components of the Cloud which runs various isolated instances on the same physical machine is one of the allocated tasks of Virtualisation. Virtual servers like Microsoft are vulnerable to allowing a guest operating system to execute code on the host OS and other guest OS. The main loophole found in VMware’s shared folder terminology permits the guest systems to read and write in system files. Appropriate isolation methodology not implemented in current Virtual Machine Monitor (VMM). VMM should provide a secure environment so that none of the virtualized guests can access the host system.

    Network Security;

    The networks categorize into different types like public, private, shared, non-shared, and large or small areas. The network level is consists of these security problems like Sniffer attacks, DNS attacks, etc. In DNS attacks, a user can easily route to another Cloud server instead of what the user requested. Domain Name Security Extension (DNSSEC) lessens the number of DNS threats; but, it is not adequate to stop the re-routing of the connection to other servers.

    Data Security;

    Whenever users want to store their data on the Cloud, the Cloud providers use the most common communication protocol; which is Hypertext Transfer Protocol (HTTP). For ensuring data security and integrity, usage of Hypertext Transfer Protocol Secure (HTTPS) and Secure Shell (SSH) is common. In Cloud systems, the organization data saves out of premises. Cloud providers can use encryption techniques to avoid breaches. For instance, The Administrators of Amazon Elastic Cloud Computing (EC2) can’t access the user’s instances and do not have access to Guest OS. Administrators require their Cryptographically Strong Secure (SSH) keys to access the host instance. All accesses should log and audited timely.

    Data Privacy;

    With Data Security, Data Privacy is one of the primary concerns for Cloud service providers. Cloud providers should ensure the customer’s data privacy demand. Data on the cloud exists almost distributed globally; which increases the concerns regarding data exposure and jurisdiction. Cloud providers might be at risk of not complying with the policies of the government.

    Data Integrity;

    It helps to reduce the level of data corruption that occurs at storage. For data centers, integrity monitoring is crucial for Cloud storage. Database constraints and transactions contribute to maintaining Data integrity. For Data integrity, transactions should follow the properties of ACID (Atomicity, Consistency, Isolation, and Durability).

    Data Location;

    In Cloud data storage, users are not aware of the fact in which location the data is stored or accessed. To serve this purpose, Many well-renowned Cloud providers have data centers globally. Due to various countries’ data privacy laws and compliance, this could be an issue. In many enterprises, the location of data is highly prioritized. For example, Countries like South America have local laws and jurisdiction on a particular amount of sensitive information.

    Data Availability;

    The enterprises should ensure the availability of data round the clock without any hindrances. Due to the unpredictability of system failure, data providers are unable to attain that standard sometimes. To achieve the high scalability and availability of the system, service providers can make some changes at the application and infrastructure levels. A multi-tier architecture is the best option to achieve data availability seamlessly through load balancing and also running the instance on separate servers. For any emergencies, cloud providers should design an action plan to cope up with disaster recovery and to achieve business continuity.

    Data Segregation;

    In cloud architecture, data is typically shared among other customer data. To solve the data segregation issue, encryption is not the only solution to look at. In some cases, consumers don’t want to encrypt their data because it might destroy the data. Cloud providers should ensure that encryption provides at all levels; and also encryption should implement under the supervision of experienced professionals.

    Benefits of Cloud Computing Security;

    Cloud computing has created a tremendous boom in the recent technologies that help the business to run online, save time, and be cost-effective. Therefore, besides having a lot of advantages of cloud computing systems, cloud computing security also plays a major role in this technology that ensures clients use it without any risk or tension.

    Below are the advantages or benefits of cloud security:

    Security against DDoS attacks:

    Many companies face the Distributed Denial of Service (DDoS) attack that a major threat that hampers company data before reaching the desired user. That is why cloud computing security plays a major role in data protection because it filters data in the cloud server before reaching cloud applications by erasing the threat of data hack.

    Data security and data virtue:

    Cloud servers are real and easy targets of falling into the trap of data breaches. Without proper care, data will be hampered, and hackers will get the hands of it. Cloud security servers ensure the best quality security protocols that help in protecting sensitive information and also maintaining data integrity.

    Flexible element:

    Cloud computing security provides the best flexibility when data traffic is concerned. Therefore, during high traffic user gets the flexibility in a happening server crash. The user also gets scalability resulting in cost reduction when the high flow of traffic ends.

    Availability and 24/7 help system:

    Cloud servers are available and provide the best backup solution giving a constant 24/7 support system benefitting the users as well as clients.

    10 Security Issues in Cloud Computing Benefits Essay Image
    10 Security Issues in Cloud Computing Benefits Essay; Image by slightly_different from Pixabay.
  • Security in Cloud Computing Need Importance Essay

    Security in Cloud Computing Need Importance Essay

    Security in Cloud Computing Systems Need Importance Essay; Cloud Computing is a form of technology that provides remote services on the internet to manage, get entry to, and shop records in place of storing them on Servers or neighborhood drives. This technology stands likewise called Serverless generation. Here the facts may be anything like Image, Audio, video, documents, documents, and so forth.

    Here is the article to explain, Security in Cloud Computing Systems Need Importance Essay!

    Cloud computing protection refers to the safety enforced on cloud computing technology. In simpler phrases, cloud security affords support and security to the applications, infrastructure, and strategies and protects statistics from vulnerable attacks. Cloud security came into existence because of the tremendous infrastructure of cloud computing structures that runs online and require proper preservation day by day. There is simplest one unmarried server in which all user statistics save; so to utilize resources, to restrict person data to get leaked or considered by way of other customers; cloud computing safety handles such sensitive computing assets.

    Need of Cloud Computing;

    Before the usage of Cloud Computing, most of the huge in addition to small IT companies use conventional techniques i.E. They save records in servers, and they want a separate Server room for that. In that Server Room, there must be a database server, mail server, firewalls, routers, modems, excessive net speed devices, and many others. For that IT corporations ought to spend plenty of cash. To lessen all the troubles with cost Cloud computing come into life and maximum groups shift to this era.

    How does Cloud Computing Security Works?

    Various groups now in recent times have moved to cloud-based computing structures for ease of work and to save time and money. The enterprise has been uplifted to new cloud provider technologies changing the traditional practices. Thus to provide controls and guard packages and cloud packages, cloud protection came into life. There are numerous dangers and issues as according to because the on-line glide of records worries; which includes records breach, information hijack, unauthorized get entry to, system malfunction, etc.

    Define;

    To take care of such chance and take care of the user needs, and hold the database; cloud computing safety guarantees proper security with the aid of operating in diverse ways:

    • Old traditional technology lacks the size of giving complete safety to the server. With the advent of cloud computing safety; the facts first are going to the cloud rather than passing immediately via the server that acts as a medium. In that way, the information transmit to the authorized person; who has to get the right of entry to it earlier than without delay reaching the server. This maintains records integrity, and the cloud blocks undesirable records, if any, before reaching the server.
    • The traditional approach consists of packages that filter the information which can be very luxurious and difficult to maintain. The information filtration complete upon attaining its desired community; and inside the halfway, due to large chunks of records, structures get crashed; and close down completely at the same time as filtering good and terrible information with outright usage. The net protection services solved it by using running on a cloud model in which records get filtered inside the secured cloud itself earlier than reaching different computing systems.
    • Cloud-based safety platforms additionally work on a non-public model that includes a personal cloud; keeping apart the unauthorized facts get entry to from the clients ensuring protection from shared protection structures.
    • It additionally works on securing records identity via deciphering the encrypted facts to the desired users who need to get entry to it.

    Why is Cloud Computing Security essentials?

    Traditional computing systems provide a remarkable technique to transmitting data; but, lack a protection system that is ultimately unable to manipulate statistics loss and records integrity; which could be very crucial in computing systems. This is where cloud computing security takes to gain, and it’s miles very crucial; because the safety version only describes a cloud service that offers the first-rate useful resource backup and protection when records involve. It provides an expansion of records offerings, together with statistics backup, digital computer, and other conversation gear; which has increased tremendously from the year 2015.

    The cloud model is critical in several ways:

    • Ensures right facts integrity and protection since the statistics that receives transmitted online thru servers are sensitive facts.
    • Lots of hacking instances have been found even as transmitting information; that may be a very commonplace subject matter for any business functions; but cloud computing era confident us the best safety feature system for all cloud storage devices and packages.
    • While cloud technology provides cloud issuer services at a completely effective fee; the security structures additionally got here to offer the maximum green platform at such fee benefitting each consumer.
    • There had been diverse government regulatory authority offerings that make certain; why cloud security and deciding on the right cloud provider are similarly important. Under the Data Privacy Act, the cloud vendors carry out effectively; which outsources the corporation’s vital data over the cloud protective each purchaser’s non-public statistics utilizing every carrier of the cloud issuer.
    • The 1/3-celebration vendors additionally get in touch with the cloud structures that provide necessary safety; and facts privateness and additionally encrypt facts before achieving without delay to the purchaser.

    Importance of Security in Cloud Computing;

    Today’s global IT infrastructure, services, and applications are all running on the Cloud platform. Cloud acts as an intrinsic functional component of most of the daily applications whether users are using Dropbox, Google Drive, Facebook, Twitter, etc.

    Cloud has revamped the business processes entirely. Today millions of organizations are consuming the services of the Cloud platform globally; such as document creation, software (SaaS), platform (PaaS), and infrastructure as a service (IaaS). With over twenty-five thousand company employees using an average of 545 cloud services. Over half of the internet users use cloud-based email services like Gmail and Yahoo.

    Few things Essay;

    Here are a few more things you can do with the cloud:

    • Create new apps and services.
    • Store, back up, and recover data.
    • Host websites and blogs.
    • Stream audio and video.
    • Deliver software on demand, and.
    • Analyze data for patterns and make predictions.

    From both, the perspectives of Cloud consumers and providers, a wide variety of security constraints encompass Cloud security. The consumers will be apprehensive with the security policy of the cloud providers that; how their data is stored and where and who has the authentication to access that data.

    On the other hand, Cloud providers deal with the issues like infrastructure’s physical security, access control of cloud assets, execution of cloud services, and maintenance of security policies. Cloud security is a crucial aspect and significant reason for the organization in the agitation of using cloud services. A non-profit organization of IT industry specialists named Cloud Security Alliance (CSA), has led the frameworks of guidelines for enforcing and implementing security within a cloud operating environment.

    Importance Essay Part 01;

    Security is a highly-prioritized aspect of any computing service, in that context, safety and privacy issues are critical for handling the client’s sensitive data on Cloud servers. Before signing in to Cloud space, users have to get the information regarding authentication and management of cloud providers. From the Cloud providers’ end, it is important to verify the authenticity of the user’s credentials; and maintain the high-security standards otherwise, a security breach could happen.

    Cloud computing is the most valuable innovation given by the entrepreneurship information technology domain to businesses that possess various characteristics like inexpensive virtual services. Consumers can store almost everything on the Cloud, but after storing data, the next big thing which matters a lot for customers is Security. For instance, Dropbox, a cloud storage platform hacked. The intruders hacked the system through unauthorized access to the personal information of users also sent spam emails to users’ folders.

    Importance Essay Part 02;

    According to Baker & Mckenzie’s survey, Security and privacy are the primary objectives of consumers before consuming cloud services. The main disinclination in deciding whether to use cloud services are Security (88%) and Privacy (73.3%). The majority of consumers are concerned regarding control and regulatory policies. Besides, 69% of buyers recognize that reputation of the cloud providers is the key criteria for choosing Cloud services. Overall, Security is the biggest concern among consumers or buyers to adopt Cloud services.

    Two-thirds of the buyers identified that their providers should agree upon the customer-specific security terms. ISO 27001 standards are chosen by the majority of consumers on which they want providers to adopt. Many providers suggested providing users with a control reporting environment through SSAE 16 SOC Type II reports. It gives evidence that how much Cloud security is critically significant for buyers especially for those providing financial or health services in a highly regulated environment.

    Importance Essay Part 03;

    As mentioned above, security is the biggest hurdle for Cloud service providers and their users. The crucial factor is the location of data in Cloud security. The location is the main advantage of the Cloud’s flexibility and a security threat as well. Determining the location of the data storage will help in providing security in some regions and could act as a threat to other areas. For Cloud users personal and business data security compel the Cloud service providers to think about strategic policies.

    Technical security is not the only medium to solve the Cloud security issue. Trust is another factor that plays a vital role in this scenario; because it is a mutual interest for all stakeholders of the Cloud environment. Almost all types of intruders attacked on computer networks and data transmission are equally a threat to cloud services. Some of the threats are eavesdropping, phishing, man-in-the-middle, sniffing, etc. Distributed Denial of Service (DDoS) is one of the major and common attacks on the Cloud computing environment; and a potential problem with no option to assuage this. Data encryption and its authentication are the primary security concern that falls under the practice of safer computing.

    Importance Essay Part 04;

    There is a thin line difference between risk and security of Cloud. Vendor lock-in considers being a potential risk in Cloud services that is unrelated to security terms. Provider business discontinuity, licensing issues, and service unavailability are some of the examples; which do not lie within the security domain from a technical perspective. Distribution of security services among different vendors would lead to inconsistencies which might transform into security vulnerabilities. Using the various kinds of security software tools in a Cloud environment might have execution loopholes that can cause a security risk to Cloud infrastructure.

    Normally, Cloud computing uses public networks to transmit data and make it available to the world, so cyber threats are standard for Cloud computing. The existing Cloud services have been suffering security loopholes from which an attacker can take advantage. The nature of the Cloud computing approach made it prone to information security, privacy and network security issues would be the concern for the Cloud infrastructure. Different Cloud infrastructure factors such as human errors, software bugs, and social engineering are dynamically challenging for Cloud.

    Importance Essay Part 05;

    To reduce the security risks Intrusion detection plays a significant role in network monitoring. There are varied angles from which various security threats might enter into Cloud infrastructures; such as virtual servers, databases, concurrency control, load balancing, and memory management. The two inevitable security threats for cloud users are session hijacking and data segregation. Scalability dynamism and level of abstraction are some of the challenges to building boundaries around the Cloud infrastructure.

    Security in Cloud Computing Systems Need Importance Essay Image
    Security in Cloud Computing Systems Needs Importance Essay; Image by Mohamed Hassan from Pixabay.
  • Protection of DDoS help Your Business Against Internet Attack

    Protection of DDoS help Your Business Against Internet Attack

    Protection of DDoS definitely helps Your Business Against Internet Attacks. If you are an entrepreneur or an internet marketer, then you need to get familiar with what is DDoS protection? DDoS stands for “Driven To Die”. It is a collective term for any attacker that attacks a single server to bring down an entire network. There are many ways to characterize what it is, but basically, it is the method of attack. This can be done in a variety of ways such as flooding, spamming, and attempting to overload the target server with junk traffic.

    Here is the article to explain, What is DDoS Protection? Help Protecting Your Business Against the Internet Attack.

    What is DDoS protection? In the world of e-commerce, the best way to defend against these types of attacks is to have dedicated hardware in place before even beginning the process. By doing so, you will have the ability to shut down the attacker as soon as the threat is detected. Some e-businesses think that they can save money by not securing dedicated hardware, but the best solution for maximum protection is going to be to go ahead and do it. You can find the best prices on this hardware online.

    Are there ways around DDoS protection? Yes, there are. One of the best ways is to make sure that you don’t allow the attacker to get onto your server. Sometimes the attacker will attempt to get onto your server by disguising themselves as an employee at your business. They will perform a scan of your web server and look for weaknesses, like exposing a firewall, downloading a lot of scripts, or crashing your server. By preventing them from doing this, you will be able to prevent them from spending any amount of time on your site.

    Other things.

    Another way to prevent this is by securing all of your necessary connections to your website. Some businesses choose to keep their connections to their servers separate from their website; so that they don’t have to worry about what’s happening on their end. While this is often a good practice, it doesn’t always give you the best prices. By sealing all of your possible connections to your business, you can get the best possible price for DDoS protection; which will give you the resources to continue running your website while the attack is in progress.

    How do you find the best prices for DDoS protection? First, never pay for DDoS protection using a company where you get an “unlimited” plan. While this sounds like a great idea, most companies actually only offer a small selection of servers that can be used during a single attack. When the time comes to renew your contract; you’ll find that you’ll need to buy new servers from the beginning – at full price. Therefore, it’s best to stick with companies that give you a small selection; and, then bill you after your account has been active for a period of time.

    Access.

    Why should you use a company that gives you unlimited access to their resources? Unlike most companies, an attacker who is going to go after your website won’t stop; if they aren’t able to get to you. They are going to keep attacking until you make it very difficult for them to continue. By letting a DDoS attacker continue their attacks; you’re setting yourself up to be hit again, and your customers will suffer as well. Make sure that the DDoS company that you choose provides you with resources for both attack attempts and recovery. You should also request that the company only use state-of-the-art DDoS solutions; which can detect and prevent more attacks before they happen.

    While you may be prepared to defend yourself against someone who is only trying to send a few traffic attacks your way; what happens when hundreds or thousands of people come after you at once? While you might be prepared to handle the attacks at any point in time, imagine being hit by multiple attacks within minutes of each other. This would undoubtedly lead to a lot of downtime for your site; and, this is exactly why you need to have a good DDoS defense in place. A good DDoS protection solution will block the majority of attacks before they happen, and if the worst happens; it will automatically recover your site to its pre-attack status quickly and efficiently.

    What is your questions about it?

    As you can see, there are a lot of questions that surround this particular subject. It is important to understand that your company needs to be prepared to defend itself against these attacks, and the best way to do this is to make sure that you hire a qualified professional DDoS defense mitigation company to take care of all your needs. While there are a lot of great companies out there that offer DDoS protection services; you must shop around before you settle on one of them. Make sure that you ask a lot of questions before you commit to any one company and always make sure that you know exactly what is going on with your system.

    What is DDoS Protection Your Business Against Internet Attack Image
    What is DDoS Protection? Your Business Against Internet Attack.
  • The reasons to use “WAF Security Architecture”

    The reasons to use “WAF Security Architecture”

    WAF Security Architecture: As a pioneer in enterprise Application Management, I often hear people asking me why they should use “WAF Security Architecture” in the enterprise; Hack Protection virtual patching. One reason is that it is more secure than most other web services. Another reason is that it can reduce your costs because you do not need to purchase and manage the hardware and software. WAF also known as Virtual IP, allows you to create private networks for applications that require them. Private networks are much cheaper to set up and maintain, making WAF a highly recommended option for any company looking to protect its applications from outside threats.

    What the reasons to use “WAF Security Architecture”? Here is the article deeply explain, and you may better understand.

    The most important reason for using WAF is firewalling. A firewall is a program designed to stop unauthorized access to a computer system. While a WAF does not have the sophisticated abilities of a commercial firewall; it can still prevent attacks by limiting access to sensitive data and application code. Many web services that use web applications often rely on information security to provide an interactive user interface. If an attacker can access the information within a WAF; they would be able to gain access to the applications; which would allow them to compromise the application and the business itself.

    WAF is very flexible when compared with traditional web application architectures. It has several advantages over the more common approaches to application firewall design. In WAF, there is only one point of connection between servers, which simplifies the task of maintaining security. Furthermore, there is only a single point of failure in WAF, compared to the multiple failures that occur in traditional web server firewalls. Lastly, there is very little complexity to the administration of WAF, making it easy to add new modules.

    By requiring no extra hardware or software to run, WAF simplifies WAN configuration. This makes it highly compatible with virtual private networks (VPNs); which many companies use for their internal network. Virtual private networks are networks that allow users to set up their private connections that bypass ISP filters. However, many businesses have found that they can reduce their downtime and save money by using a WAF to protect sensitive data. A VPN is usually set up on a dedicated infrastructure that hosts multiple WAN interfaces; allowing for secure VPN connectivity between various locations. A WAF on the other hand can be set up on any WAN interface, saving significant costs and simplifying WAN configuration.

    WAF AND REVERSE PROXY:

    One WAF that exists widely used to prevent malicious Internet traffic is the reverse proxy. A reverse proxy is a web application firewall that filters and intercepts specific types of traffic. For instance, you may set up a reverse proxy to prevent Google search engines from indexing a particular URL. The Google search engine sends its request to a server that hosts a website that does not index the requested page. The reverse proxy then intercepts this request and delivers it to the search engine. By injecting an error code into the Google search request, the server is unable to index the page; effectively preventing the entry of malicious URLs and malicious intent.

    Content Filtering: 

    Another popular type of WAF is content filtering WAF. This type of web security firewall uses to block content from being sent to a WAN server or a specific user’s browser. For instance, if you set up a web application firewall (WAF) that blocks all Google search engine traffic; you would prevent malicious Internet traffic from reaching your application. In effect, the web application firewall (WAF) prevents hackers from exploiting a security vulnerability or gaining access to a system.

    Cross-site Scripting:

    Cross-site scripting (CS) is another popular form of WAF. CS attacks occur when an attacker can create valid HTML or script code on a target website and then injects that HTML code into a web page. This “starts” the malicious code on the target browser, and allows for the code to display. Although these attacks are relatively easy to defend against using common techniques; there are still many WAFs that are vulnerable to CS attacks. To make these attacks more difficult, many WAFs include protective measures such as preventing CS from reaching the application.

    With these three types of WAF, there are ways to prevent attackers from gaining access to your web application. By using these three different forms of WAF, you can create a layered approach that not only prevents attacks from happening; but also monitors for malicious activity to identify it and stop it. Each of these security rules will provide you with a higher level of visibility and defense against web exploits, ensuring that your website and data stay secure.

    The reasons to use WAF Security Architecture Image
    The reasons to use WAF Security Architecture; Image from Pixabay.
  • All you Need to Know about WAF and Virtual Patching

    All you Need to Know about WAF and Virtual Patching

    WAF and Virtual Patching: Web Application Firewall (WAF SECURITY) And Virtual Patching “WAF Security and Its mechanism”; How load balancing tiers in WAF (Web Application Firewall) work is by assigning traffic to the various web application servers. By doing this, the WAF software provides guaranteed that requests for particular web pages will process quickly and without being lost in the server’s traffic. With many different web traffic delivery networks being deployed today; IT professionals must continue to develop new ways to deal with the different attacks that may come across their networks.

    Here is the article; All you Need to Know about WAF and Virtual Patching.

    By developing and deploying different WAF methods; it is possible to better protect the information that stores on a company’s networks. These attacks can come from several different sources; such as a hacker with a virus or intrusion, malicious attackers, and even the typical user who may accidentally click on an advertisement; following the WAF and Virtual Patching, you know and understand all about them below are.

    CSRF Attacks:

    As many as 60 percent of all web applications are vulnerable to attack through cross-site request forgery (CSRF); which occurs when a hacker along with another user on the same network penetrates a web application through a link from another website. The CSRF attacks can take many forms, such as simple attacks that allow the hacker to read or change the information stored on a website or the usage of more sophisticated techniques; such as injecting malicious code into a site or sending a spoofed email to a user.

    CSRF Attacks Hack Protection Ultimate Security
    CSRF Attacks Hack Protection Ultimate Security

    As many as half of all CSRF attacks occur at the client-side; meaning that an attacker not only has to gain access to a network of computers; but also to change the information that being stores in a site. While some of these types of attacks can execute using software and without the knowledge of the user; many attacks can only execute with the knowledge and consent of the victim

    Another popular method used to try to infiltrate websites and steal information is through the use of a reverse proxy. Using a reverse proxy server can allow attackers to send a specially crafted request to an IP address of a target webserver. The request would contain a payload of attack code that would then execute on the target machine. Although this technique can execute by a casual user who happens to know the IP address of a target web server; it typically uses by experienced hackers and developers who have more sophisticated means at their disposal.

    Definition of WAF Security:

    A WAF security appliance or positive security model firewall also blocks attackers from sending additional requests to the application security system without permission. An example of this would be a website that contained embedded scripts; or any other type of malicious code that could execute arbitrary code on the targeted machine. Such attacks prevent by an appliance or positive security model firewall. These appliances were designed to prevent the introduction of any additional attacks; such as scripts or any other code that could execute remotely.

    In addition to preventing the introduction of any additional attacks; a positive security model firewall also controls and monitors all outgoing traffic. Traffic that originates from untrusted sources records and logs for analysis. Such traffic categorizes into two types: normal traffic and suspicious traffic. For normal traffic, the WAF administrator can analyze these packets to determine whether they contain malicious scripts or other harmful content. If so, the source blocks from further access, and actions were taken against that IP. In the case of suspicious traffic, the IP address and source log for analysis.

    Application security controls also implement in the WAF security architecture. Rules implement to monitor application usage and suspicious processes, which can execute manually or can be automatic. Such rules can configure at various levels to block or allow specific types of traffic. The purpose of this is to provide greater visibility; and, control over applications to ensure that only legitimate websites are accessed. Visibility and control of applications achieve through the use of WAF filters.

    Virtual Patching And Its Types:

    One of the most common vulnerabilities exploited by cybercriminals and hackers is security holes in computer programs and applications; which allow attackers to bypass the security measures imposed on these programs and applications and execute their malicious payload. Virtual patching is a dynamic address allocation system that prevents these attacks by validating; and, replacing various critical Windows features like shared memory and static ports. However, not all cases of such vulnerabilities can patch by using virtual patching and other means. It is important to understand the characteristics of these vulnerabilities so that companies; and, individuals can take steps to mitigate the risks associated with these attacks.

    There are two types of virtual patching, which include static and dynamic virtual patching.

    Static Virtual Patching:

    A static virtual patching technique works as it replaces an existing vulnerability with a new one without replacing the protection level for the vulnerable component. This finish by replacing the digitally signed DLL file that provides support for the application with a version that has been digitally signed using the digital signature algorithm. The advantage of such a technique is that it creates a void for an attack since no action takes against the application; which could result in the removal of a functioning security feature. For instance, an application that was exploited for remote control over computers that has been patched to prevent exploitation of the system may still be vulnerable to attacks; if it has dynamic virtual port settings that have been left unchanged.

    Dynamic Virtual Patching:

    On the other hand, dynamic virtual patching utilizes a mechanism called runtime security which enables by using the security feature VirtualBox. With this feature, web servers provide with the capability to configure security policies that can determine; which code injections allow to allow or deny a certain application to run. This allows web servers to determine which DLL files can be trusted; and, which cannot trust to execute specific modules or functions. By instructing the webserver which DLL files can or cannot be trusted; the threat of an attack on the web server’s safety considerably decreases. Also, it is easier for companies and end-users to manually disable the VirtualBox web-based management tools that allow for the execution of DLL files.

    Another benefit of using virtual patching methodology is the prevention of security vulnerability that comes with the use of freely available tools; such as Intrusion Detection System (IDS) and Code Review Engine (CSE). The IDS and CSE components of popular operating systems such as Windows, Linux, and Mac OS X are poorly written and can exploit by dedicated developers. Furthermore, these components integrate into free tools that have not been scrutinized by experts and can therefore provide attackers with an easy way of compromising your system. With the use of dynamic virtual patching, you can easily avoid such vulnerabilities and thereby maintain the integrity of your applications.

    More about Virtual Patching:

    Virtual patching can also help prevent the compromise of exploits executed in web applications through the use of executable codes. Some developers tend to load vulnerable web applications that they develop using external programs; or directly into the system of their development environment without first securing the application before deployment. Such developers are, however, advised to not execute such codes during their lifetime as a preventive measure against exploits.

    While it is true that the use of a virtual patching service can bring about significant improvements in the performance of your system; this solution should use only for superior results. This solution design to enhance the security of the most crucial parts of the system while leaving the user’s accessibility to perform other functions. For instance, if you are developing web applications using Adobe Dreamweaver; you do not advise disabling the HTML attribute so that users can gain access to the inner pages of the application without having to wait for a closure event.

    Such attributes are very essential as they make it easier for end-users to navigate through your application. Likewise, it also recommends that you do not disable the Set View State In IE feature to prevent Microsoft from detecting sensitive information embedded inside the object code. If you feel that you cannot secure all your assets; and, that you would like to have full control over the entire process of application delivery; you should consider getting in touch with a professional web application development company for assistance. Now, you may understand what is the WAF and Virtual Patching.

    All you Need to Know about WAF and Virtual Patching
    All you Need to Know about WAF and Virtual Patching; Image from Pixabay.
  • What is RFID (Radio Frequency Identification)? Meaning and Definition!

    What is RFID (Radio Frequency Identification)? Meaning and Definition!

    Learn, RFID (Radio Frequency Identification), Meaning and Definition!


    Radio Frequency Identification (RFID) In past few recent years, the automatic identification techniques have become quite more than popular and they have also find their places into the core of service industries, manufacturing companies, aviation, clothing, transport systems and much more. And, it’s pretty clear by this point of time that the automated identification technology especially RFID, is highly helpful in providing information regarding the timings, location and even more intense information about people, animals, goods etc. in transit. RFID is responsible for storage of large amount of data and is reprogrammable also as in contrast with its counterpart barcodes automatic identification technology.

    #Meaning of RFID!

    “Radio-frequency identification (RFID) uses electromagnetic fields to automatically identify and track tags attached to objects. The tags contain electronically stored information. Passive tags collect energy from a nearby RFID reader’s interrogating radio waves. Active tags have a local power source such as a battery and may operate at hundreds of meters from the RFID reader. Unlike a barcode, the tag need not be within the line of sight of the reader, so it may be embedded in the tracked object. RFID is one method for Automatic Identification and Data Capture (AIDC).”

    In everyday life, the most common form of an electronic data-carrying device if often a smartcard which is probably based upon the contact field. But, this kind of a contact oriented card is normally impractical and less flexible to use. On the contrary, if we think of a contactless card with contactless data transferring capabilities, it would be far more flexible. This communication happens between the data carrying device and its reader. Now, this situation may further appear as ideal if it so happens that the power for the data carrying device comes from the reader by making use of the contactless technology. Because of this specific kind of power transferring and data carrying procedures, the contactless automatic identification systems are termed as Radio frequency Identification Systems.

    What is Radio Frequency Identification (RFID)?

    Definition: The term RFID stands for Radio Frequency Identification. Radio stands for invocation of the wireless transmission and propagation of information or data. For operating RFID devices, Frequency defines spectrum, may it be low, high, ultra high and microwave, each with distinguishing characteristics. Identification relates to identify the items with the help of various codes present in a data carrier (memory-based) and available via radio frequency reading. The RFID is a term which is used for any device that can be sensed or detected from a distance with few problems of obstruction. The invention of RFID term lies in the origin of tags that reflect or retransmit a radio-frequency signal. RFID makes use of radio frequencies to communicate between two of its components namely RFID tag and the RFID reader. The RFID system can be broadly categorized according to the physical components of frequency and data.

    Physical components of the RFID system include, but are not limited to, the following: numerous RFID tags and RFID readers and Computers. The factors associated with the RFID tags are the kind of power source its has, the environment in which it operates, the antenna on the tag for communication with the reader, its corresponding standard, memory, logic applied on the chip and application methods on the tag. The RFID tag refers to a tiny radio device also known as radio barcode, transponder or smart label. This tag is comprised of a simple silicon microchip which is attached to a small flat antenna and mounted on a substrate.

    The entire device can then be encapsulated in various materials dependent upon its intended usage. The finished RFID tag can then be attached to an object, typically an item, box or pallet. This tag can then be read remotely to ascertain position, identity or state of an item. The application methods of an RFID tag may take the forms attached, removable, embedded or conveyed. Further, the RFID tags depend upon the power source which may be a battery in case of active-tags and an RFID reader in case of passive tags. In context of the environment in which the tag operates, the role of temperature range and the humidity range comes into picture.

    The RFID reader is also referred as interrogator or scanner. Its purpose is to send and receive RF data from tags. The RFID reader factors include its antenna, polarization, protocol, interface and portability. The antenna for communication in case of the RFID reader may be internal or external and its ports may assume the values single or multiple. The polarization in case of an RFID reader may be linear or circular and single or multiple protocols may be used. In an RFID reader, Ethernet, serial, Wi-Fi, USB or other interfaces may be used. Regarding portability associated with the reader, it may be fixed or handheld.

    Apart from the RFID tags and readers, host computers are also amongst the part of the physical components of an RFID system. The data acquired by the RFID readers is passed to the host computer which may further run a specialist RFID software, or middleware to filter the data and route it to the correct application to be processed into useful information.

    Apart from the physical components of an RFID system, the RFID system may be perceived from the frequency perspective. In RFID systems, the frequency may further be classified according to the signal distance, signal range, reader to tag, tag to reader and coupling. The signal distance includes the read range and the write range. The signal range here in case of RFID systems reflects the various frequency bands i.e. LF, HF, UHF and Microwave. Further, the reader to tag frequency may assume single frequency or multiple frequencies. In case of tag to reader frequency, it may be subharmonic, harmonic or an harmonic.

    The data sub classification in RFID systems includes, the security associated with the RFID systems, multi-tag read co-ordination and processing. In the similar context, public algorithm, proprietary algorithm or none are applied for the security associated with the RFID systems. The multi-tag read co-ordination techniques used in the latest RFID systems include SDMA, TDMA, FDMA and CDMA. The processing part is composed of the middleware which further has its own architecture which may assume a single or multi-tier shape and its associated location may be reader or the server.

    Basic Information: RFID tags are used in many industries, for example, an RFID tag attached to an automobile during production can be used to track its progress through the assembly line; RFID-tagged pharmaceuticals can be tracked through warehouses; and implanting RFID microchips in livestock and pets allows for positive identification of animals.

    Since RFID tags can be attached to cash, clothing, and possessions, or implanted in animals and people, the possibility of reading personally-linked information without consent has raised serious privacy concerns. These concerns resulted in standard specifications development addressing privacy and security issues. ISO/IEC 18000 and ISO/IEC 29167 use on-chip cryptography methods for untraceability, tag and reader authentication, and over-the-air privacy. ISO/IEC 20248 specifies a digital signature data structure for RFID and barcodes providing data, source and read method authenticity. This work is done within ISO/IEC JTC 1/SC 31 Automatic identification and data capture techniques.

    In 2014, the world RFID market is worth US$8.89 billion, up from US$7.77 billion in 2013 and US$6.96 billion in 2012. This includes tags, readers, and software/services for RFID cards, labels, fobs, and all other form factors. The market value is expected to rise to US$18.68 billion by 2026.

    What is RFID Radio Frequency Identification Meaning and Definition - ilearnlot


  • Different Kind of Security Attacks on RFID Systems

    Different Kind of Security Attacks on RFID Systems

    Different Kind of Security Attacks on RFID Systems


    RFID systems are vulnerable to attack and can be compromised at various stages. Generally the attacks against a RFID system can be categorized into four major groups: attacks on authenticity, attacks on integrity, attacks on confidentiality, and attacks on availability. Besides being vulnerable to common attacks such as eavesdropping, man-in-the-middle and denial of service, RFID technology is, in particular, susceptible to spoof and power attacks.

    Meaning of RFID: “Radio-frequency identification (RFID) uses electromagnetic fields to automatically identify and track tags attached to objects. The tags contain electronically stored information. Passive tags collect energy from a nearby RFID reader’s interrogating radio waves. Active tags have a local power source such as a battery and may operate at hundreds of meters from the RFID reader. Unlike a barcode, the tag need not be within the line of sight of the reader, so it may be embedded in the tracked object. RFID is one method for Automatic Identification and Data Capture (AIDC).”

    This section illustrates the different kinds of attacks on RFID systems.

    Eavesdropping: Since an RFID tag is a wireless device that emits a unique identifier upon interrogation by a RFID reader, there exists a risk that the communication between tag and reader can be eavesdropped. Eavesdropping occurs when an attacker intercepts data with any compliant reader for the correct tag family and frequency while a tag is being read by an authorized RFID reader. Since most RFID systems use clear text communication due to tag memory capacity or cost, eavesdropping is a simple but efficient means for the attacker to obtain information on the collected tag data. The information picked up during the attack can have serious implications – used later in other attacks against the RFID system.

    Man-in-the-Middle Attack: Depending on the system configuration, a man-in-the-middle attack is possible while the data is in transit from one component to another. An attacker can interrupt the communication path and manipulate the information back and forth between RFID components. This is a real-time threat. The attack will reveal the information before the intended device receives it and can change the information en route. Even if it received some invalid data, the system being attacked might assume the problem was caused by network errors, but would not recognize that an attack occurred. An RFID system is particularly vulnerable to Man-in-the Middle attacks because the tags are small in size and low in price.

    Denial of Service: Denial of Service (DOS) attacks can take different forms to attack the RFID tag, the network, or the back-end to defeat the system. The purpose is not to steal or modify information, but to disable the RFID system so that it cannot be used. When talking about DOS attacks on wireless networks, the first concern is on physical layer attacks, such as jamming and interference. Jamming with noise signals can reduce the throughput of the network and ruin network connectivity to result in overall supply chain failure. A device that actively broadcasts radio signals can block and disrupt the operation of any nearby RFID readers. Interference with other radio transmitters is another possibility to prevent a reader from discovering and polling tags.

    Spoofing: In the context of RFID technology, spoofing is an activity whereby a forged tag masquerades as a valid tag and thereby gains an illegitimate advantage. Tag cloning is a kind of spoofing attack that captures the data from a valid tag, and then creates a copy of the captured sample with a blank tag.

    Replay Attack: In replay attack, an attacker intercepts communication between a RFID reader and a tag to capture a valid RFID signal. At a later time, this recorded signal is re-entered into the system when the attacker receives a query from the reader. Since the data appears valid, it will be accepted by the system.

    Virus: If a RFID tag is infected with a computer virus, this particular RFID virus could use SQL injection to attack the backend servers and eventually bring an entire RFID system down.

    Power Analysis: Power analysis is a form of side-channel attack, which intends to crack passwords through analyzing the changes of power consumption of a device. It has been proven that the power consumption patterns are different when the tag received correct and incorrect password bits.

    Impersonation: An adversary can query to a tag and a reader in RFID systems. By this property, one can impersonate the target tag or the legitimate reader. When a target tag communicates with a legitimate reader, an adversary can collect the messages being sent to the reader from the tag. With the message, the adversary makes a clone tag in which information of a target tag is stored. When the legitimate reader sends a query, the clone tag can reply the message in response, using the information of a target tag. Then the legitimate reader may consider the clone tag as a legitimate one.

    Information Leakage: If RFID systems are used widely, users will have various tagged objects. Some of objects such as expensive products and medicine store quite personal and sensitive information that the user does not want anyone to know. When tagged objects received a query from readers, the tags only emit its Electronic Product Code (EPC) to readers without checking legitimacy of readers. Therefore, if RFID systems are designed to protect the information of tags, user’s information cannot be leaked to malicious readers without an acknowledgment of the user.

    Traceability: When a user has special tagged objects, an adversary can trace user’s movement using messages transmitted by the tags. In the concrete, when a target tag transmits a response to a reader, an adversary can record the transmitted message and is able to establish a link between the response and the target tag. As the link is established, the adversary is able to know the user’s movement and obtain location history of the user.

    Tampering: The greatest threat for RFID system is represented by data tampering. The most well-known data tampering attacks control data, and the main defense against it is the control flow monitoring for reaching tamper-evidence. However, tampering with other kinds of data such as user identity data, configuration data, user input data, and decision-making data, is also dangerous. Some solutions were proposed, such as a tamper-evident compiler and micro-architecture collaboration framework to detect memory tampering. A further threat is the tampering with application data, involving mistakes in the production flow, denial of service, incoherence in the information system, and exposure to opponent attacks. This kind of attack is especially dangerous for RFID systems, since one of the main RFID applications is the automatic identification for database real-time updating.

    Different-Kind-of-Security-Attacks-on-RFID-Systems