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Explore Algosec's customer success stories to see how organizations worldwide improve security, compliance, and efficiency with our solutions. NCR ACCELERATES TOWARDS ZERO-TRUST Organization NCR Global Industry Financial Services Headquarters Georgia, USA Download case study Share Customer
success stories “AlgoSec helps us be vendor-agnostic and understand our full security posture to lead us down this journey to achieve zero-trust.” Scott Theriault, Global Manager Network Perimeter Security NCR Corporation Background NCR Corporation is a leading global point-of-sale (POS) provider for restaurants, retailers, and banks and a provider of multi-vendor ATM software. Headquartered in Atlanta, Georgia, NCR has over 36,000 employees in 160 countries, and solutions are distributed in 141 countries. The challenge NCR needed to connect its DevOps pipeline with its network security. With over 4,500 policy changes made annually, it was difficult to securely manage their entire networking and security environment while being responsive to application owners but still achieve zero trust. Strategically, they were aiming to automate and orchestrate security policy changes across their entire hybrid network, so they could securely accelerate application delivery. The solution They implemented the AlgoSec Security Policy Management Solution, made up of AlgoSec Firewall Analyzer, AlgoSec FireFlow, and AlgoSec AppViz and AppChange. AlgoSec Firewall Analyzer enables organizations to discover, identify, and map business applications across their entire hybrid network. It analyzes complex network security policies across the network. It automates and simplifies security operations, including troubleshooting, auditing, and risk analysis. AlgoSec FireFlow enables security staff to automate the entire security policy change process from design and submission to proactive risk analysis, implementation, validation, and auditing. Its intelligent, automated workflows save time and improve security by eliminating manual errors and reducing risk. AlgoSec AppViz, the application visibility add-on for AlgoSec Firewall Analyzer, provides visibility for your network applications, enabling secure application delivery. AlgoSec AppChange, the application automation add-on for AlgoSec FireFlow, allows for changes at the business application level, including during the application migrations, server deployment, and decommissioning projects. The results AlgoSec is a strategic component of NCR’s network security, managing its entire network security infrastructure. The AlgoSec platform enables the NCR Corporation to manage application connectivity end-to-end across their network — including public cloud, Cisco ACI, and physical firewalls. “Most products don’t understand the end-to-end environment. AlgoSec does,” noted Scott Theriault, Global Manager, Network Perimeter Security. Some of the ways that NCR Corporation benefits from AlgoSec include: Launched migration of their on-premises data centers into the Cisco ACI fabric. Extended microsegmentation to Cisco ACI environment. Achieved complete visibility of their global security posture from a single dashboard. Automated risk analysis, achieving visibility and insights into the risk that changes introduce. Streamlined auditing process with to automatic logging and audit-ready compliance reports. Cleaned up and reduced firewall policies with rule cleanup, object cleanup, and policy tuning. “As we aspire to achieve zero-trust, when moving into the cloud, micro-segmentation and container security come into play. Therefore, we need tools like AlgoSec to assist us in the journey because most application owners don’t know what access is needed. This tool helps them learn what needs to be implemented to reduce the attack surface,” stated Theriault. Schedule time with one of our experts

As your organization adopts a hybrid IT infrastructure, there are more ways for hackers to steal your sensitive data. This is why cloud... Cloud Security Cloud Application Security: Threats, Benefits, & Solutions Rony Moshkovich 2 min read Rony Moshkovich Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 6/29/23 Published As your organization adopts a hybrid IT infrastructure, there are more ways for hackers to steal your sensitive data. This is why cloud application security is a critical part of data protection. It allows you to secure your cloud-based applications from cyber threats while ensuring your data is safe. This post will walk you through cloud application security, including its importance. We will also discuss the main cloud application security threats and how to mitigate them. What is Cloud Application Security Cloud application security refers to the security measures taken to protect cloud-based assets throughout their development lifecycle. These security measures are a framework of policies, tools, and controls that protect your cloud against cyber threats. Here is a list of security measures that cloud application security may involve: Compliance with industry standards such as CIS benchmarks to prevent data breaches. Identity management and access controls to prevent unauthorized access to your cloud-based apps. Data encryption and tokenization to protect sensitive data. Vulnerability management through vulnerability scanning and penetration testing. Network perimeter security, such as firewalls, to prevent unwanted access. The following are some of the assets that cloud security affects: Third-party cloud providers like Amazon AWS, Microsoft Azure, and Google GCP. Collaborative applications like Slack and Microsoft Teams. Data Servers. Computer Networks. Why is Cloud Application Security Important Cloud application security is becoming more relevant as businesses migrated their data to the cloud in recent years. This is especially true for companies with a multi-cloud environment. These types of environments create a larger attack surface for hackers to exploit. According to IBM , the cost of a data breach in 2022 was $4.35 million. And this represents an increase of 2.6% from the previous year. The report also revealed that it took an average of 287 days to find and stop a data breach in a cloud environment. This time is enough for hackers to steal sensitive data and really damage your assets. Here are more things that can go wrong if organizations don’t pay attention to cloud security: Brand image damage: A security breach may cause a brand’s reputation to suffer and a decline in client confidence. During a breach, your company’s servers may be down for days or weeks. This means customers who paid for your services will not get access in that time. They may end up destroying your brand’s image through word of mouth. Lost consumer trust: Consumer confidence is tough to restore after being lost due to a security breach. Customers could migrate to rivals they believe to be more secure. Organizational disruption: A security breach may cause system failures preventing employees from working. This, in turn, could affect their productivity. You may also have to fire employees tasked with ensuring cloud security. Data loss: You may lose sensitive data, such as client information, resulting in legal penalties. Trade secrets theft may also affect the survival of your organization. Your competitors may steal your only leverage in the industry. Compliance violations: You may be fined for failing to comply with industry regulations such as GDPR. You may also face legal consequences for failing to protect consumer data. What are the Major Cloud Application Security Threats The following is a list of the major cloud application security threats: Misconfigurations: Misconfigurations are errors made when setting up cloud-based applications. They can occur due to human errors, lack of expertise, or mismanagement of cloud resources. Examples include weak passwords, unsecured storage baskets, and unsecured ports. Hackers may use these misconfigurations to access critical data in your public cloud. Insecure data sharing: This is the unauthorized or unintended sharing of sensitive data between users. Insecure data sharing can happen due to a misconfiguration or inappropriate access controls. It can lead to data loss, breaches, and non-compliance with regulatory standards. Limited visibility into network operations: This is the inability to monitor and control your cloud infrastructure and its apps. Limited network visibility prevents you from quickly identifying and responding to cyber threats. Many vulnerabilities may go undetected for a long time. Cybercriminals may exploit these weak points in your network security and gain access to sensitive data. Account hijacking: This is a situation where a hacker gains unauthorized access to a legitimate user’s cloud account. The attackers may use various social engineering tactics to steal login credentials. Examples include phishing attacks, password spraying, and brute-force attacks. Once they access the user’s cloud account, they can steal data or damage assets from within. Employee negligence and inadequately trained personnel: This threat occurs when employees are not adequately trained to recognize, report and prevent cyber risks. It can also happen when employees unintentionally or intentionally engage in risky behavior. For example, they could share login credentials with unauthorized users or set weak passwords. Weak passwords enable attackers to gain entry into your public cloud. Rogue employees can also intentionally give away your sensitive data. Compliance risks: Your organization faces cloud computing risks when non-compliant with industry regulations such as GDPR, PCI-DSS, and HIPAA. Some of these cloud computing risks include data breaches and exposure of sensitive information. This, in turn, may result in fines, legal repercussions, and reputational harm. Data loss: Data loss is a severe security risk for cloud applications. It may happen for several causes, including hardware malfunction, natural calamities, or cyber-attacks. Some of the consequences of data loss may be the loss of customer trust and legal penalties. Outdated security software: SaaS vendors always release updates to address new vulnerabilities and threats. Failing to update your security software on a regular basis may leave your system vulnerable to cyber-attacks. Hackers may exploit the flaws in your outdated SaaS apps to gain access to your cloud. Insecure APIs: APIs are a crucial part of cloud services but can pose a severe security risk if improperly secured. Insecure APIs and other endpoint infrastructure may cause many severe system breaches. They can lead to a complete system takeover by hackers and elevated privileged access. How to Mitigate Cloud Application Security Risks The following is a list of measures to mitigate cloud app security risks: Conduct a thorough risk analysis: This entails identifying possible security risks and assessing their potential effects. You then prioritize correcting the risks depending on their level of severity. By conducting risk analysis on a regular basis, you can keep your cloud environment secure. You’ll quickly understand your security posture and select the right security policies. Implement a firm access control policy: Access control policies ensure that only authorized users gain access to your data. They also outline the level of access to sensitive data based on your employees’ roles. A robust access control policy comprises features such as: Multi-factor authentication Role-based access control Least Privilege Access Strong password policies. Use encryption: Encryption is a crucial security measure that protects sensitive data in transit and at rest. This way, if an attacker intercepts data in transit, it will only be useful if they have a decryption key. Some of the cloud encryption solutions you can implement include: Advanced Encryption Standard (AES) Rivest -Shamir-Addleman (RSA) Transport Layer Security (TSL) Set up data backup and disaster recovery policies: A data backup policy ensures data is completely recovered in case of breaches. You can always recover the lost data from your data backup files. Data backup systems also help reduce the impact of cyberattacks as you will restore normal operations quickly. Disaster recovery policies focus on establishing protocols and procedures to restore critical systems during a major disaster. This way, your data security will stay intact even when disaster strikes. Keep a constant watch over cloud environments: Security issues in cloud settings can only be spotted through continuous monitoring. Cloud security posture management tools like Prevasio can help you monitor your cloud for such issues. With its layer analysis feature, you’ll know the exact area in your cloud and how to fix it. Test and audit cloud security controls regularly: Security controls help you detect and mitigate potential security threats in your cloud. Examples of security controls include firewalls, intrusion detection systems, and database encryption. Auditing these security controls helps to identify gaps they may have. And then you take corrective actions to restore their effectiveness. Regularly evaluating your security controls will reduce the risk of security incidents in your cloud. Implement a security awareness training program: Security awareness training helps educate employees on cloud best practices. When employees learn commonly overlooked security protocols, they reduce the risks of data breaches due to human error. Organize regular assessment tests with your employees to determine their weak points. This way, you’ll reduce chances of hackers gaining access to your cloud through tactics such as phishing and ransomware attacks. Use the security tools and services that cloud service providers offer: Cloud service providers like AWS, Azure, and Google Cloud Platform (GCP) offer security tools and services such as: Web application firewalls (WAF), Runtime application self-protection (RASP), Intrusion detection and prevention systems Identity and access management (IAM) controls You can strengthen the security of your cloud environments by utilizing these tools. However, you should not rely solely on these features to ensure a secure cloud. You also need to implement your own cloud security best practices. Implement an incident response strategy: A security incident response strategy describes the measures to take during a cyber attack. It provides the procedures and protocols to bring the system back to normal in case of a breach. Designing incident response plans helps to reduce downtime. It also minimizes the impact of the damages due to cyber attacks. Apply the Paved Road Security Approach in DevSecOps Processes: DevSecOps environments require security to be integrated into development workflows and tools. This way, cloud security becomes integral to an app development process. The paved road security approach provides a secure baseline that DevSecOps can use for continuous monitoring and automated remediation. Automate your cloud application security practices Using on-premise security practices such as manual compliance checks to mitigate cloud application security threats can be tiring. Your security team may also need help to keep up with the updates as your cloud needs grow. Cloud vendors that can automate all the necessary processes to maintain a secure cloud. They have cloud security tools to help you achieve and maintain compliance with industry standards. You can improve your visibility into your cloud infrastructures by utilizing these solutions. They also spot real-time security challenges and offer remediations. For example, Prevasio’s cloud security solutions monitor cloud environments continually from the cloud. They can spot possible security threats and vulnerabilities using AI and machine learning. What Are Cloud Application Security Solutions? Cloud application security solutions are designed to protect apps and other assets in the cloud. Unlike point devices, cloud application security solutions are deployed from the cloud. This ensures you get a comprehensive cybersecurity approach for your IT infrastructure. These solutions are designed to protect the entire system instead of a single point of vulnerability. This makes managing your cybersecurity strategy easier. Here are some examples of cloud security application solutions: 1. Cloud Security Posture Management (CSPM) : CSPM tools enable monitoring and analysis of cloud settings for security risks and vulnerabilities. They locate incorrect setups, resources that aren’t compliant, and other security concerns that might endanger cloud infrastructures. 2. The Cloud Workload Protection Platform (CWPP) : This cloud application security solution provides real-time protection for workloads in cloud environments . It does this by detecting and mitigating real-time threats regardless of where they are deployed. CWPP solutions offer various security features, such as: Network segmentation File integrity monitoring Vulnerability scanning. Using CWPP products will help you optimize your cloud application security strategy. 3. Cloud Access Security Broker (CASB) : CASB products give users visibility into and control over the data and apps they access in the cloud. These solutions help businesses enforce security guidelines and monitor user behavior in cloud settings. The danger of data loss, leakage, and unauthorized access is lowered in the process. CASB products also help with malware detection. 4. Runtime Application Self Protection (RASP): This solution addresses security issues that may arise while a program is working. It identifies potential threats and vulnerabilities during runtime and thwarts them immediately. Some of the RASP solutions include: Input validation Runtime hardening Dynamic Application Security testing 5. Web Application and API protection (WAAP) : These products are designed to protect your organization’s Web applications and APIs. They monitor outgoing and incoming web apps and API traffic to detect malicious activity. WAAP products can block any unauthorized access attempts. They can also protect against cyber threats like SQL injection and Cross-site scripting. 6. Data Loss Prevention (DLP): DLP products are intended to stop the loss or leaking of private information in cloud settings. These technologies keep track of sensitive data in use and at rest. They can also enforce rules to stop unauthorized people from losing or accessing it. 7. Security Information and Event Management (SIEM) systems : SIEM systems track and analyze real-time security incidents and events in cloud settings. The effect of security breaches is decreased thanks to these solutions. They help firms in detecting and responding to security issues rapidly. Cloud Native Application Protection Platform (CNAPP) The CNAPP, which Prevasio created, raises the bar for cloud security. It combines CSPM, CIEM, IAM, CWPP, and more in one tool. A CNAPP delivers a complete security solution with sophisticated threat detection and mitigation capabilities for packaged workloads, microservices, and cloud-native applications. The CNAPP can find and eliminate security issues in your cloud systems before hackers can exploit them. With its layer analysis feature, you can quickly fix any potential vulnerabilities in your cloud . It pinpoints the exact layer of code where there are errors, saving you time and effort. CNAPP also offers a visual dynamic analysis of your cloud environment . This lets you grasp the state of your cloud security at a glance. In the process, saving you time as you know exactly where to go. CNAPP is also a scalable cloud security solution. The cloud-native design of Prevasio’s CNAPP enables it to expand dynamically and offer real-time protection against new threats. Let Prevasio Solve Your Cloud Application Security Needs Cloud security is paramount to protecting sensitive data and upholding a company’s reputation in the modern digital age. To be agile to the constantly changing security issues in cloud settings, Prevasio’s Cloud Native Application Protection Platform (CNAPP) offers an all-inclusive solution. From layer analysis to visual dynamic analysis, CNAPP gives you the tools you need to keep your cloud secure. You can rely on Prevasio to properly manage your cloud application security needs. Try Prevasio today! Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... Short answer* By submitting this form, I accept AlgoSec's privacy policy Schedule a call

Firewalls form the first line of defense against intrusive hackers trying to infiltrate internal networks and steal sensitive data. They... Firewall Change Management 5 Types of Firewalls for Enhanced Network Security Asher Benbenisty 2 min read Asher Benbenisty Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 10/25/23 Published Firewalls form the first line of defense against intrusive hackers trying to infiltrate internal networks and steal sensitive data. They act as a barrier between networks, clearly defining the perimeters of each. The earliest generation of packet-filter firewalls were rudimentary compared to today’s next-generation firewalls, but cybercrime threats were also less sophisticated. Since then, cybersecurity vendors have added new security features to firewalls in response to emerging cyber threats. Today, organizations can choose between many different types of firewalls designed for a wide variety of purposes. Optimizing your organization’s firewall implementation requires understanding the differences between firewalls and the network layers they protect. How Do Firewalls Work? Firewalls protect networks by inspecting data packets as they travel from one place to another. These packets are organized according to the transmission control protocol/internet protocol (TCP/IP), which provides a standard way to organize data in transit. This protocol is a concise version of the more general OSI model commonly used to describe computer networks. These frameworks allow firewalls to interpret incoming traffic according to strictly defined standards. Security experts use these standards to create rules that tell firewalls what to do when they detect unusual traffic. The OSI model has seven layers: Application Presentation Session Transport Network Data link Physical Most of the traffic that reaches your firewall will use one of the three major Transport layer protocols in this model, TCP, UDP, or ICMP. Many security experts focus on TCP rules because this protocol uses a three-step TCP handshake to provide a reliable two-way connection. The earliest firewalls only operated on the Network Layer, which provides information about source and destination IP addresses, protocols, and port numbers. Later firewalls added Transport Layer and Application Layer functionality. The latest next-generation firewalls go even further, allowing organizations to enforce identity-based policies directly from the firewall. Related Read : Host-Based vs. Network-Based Firewalls 1. Traditional Firewalls Packet Filtering Firewalls Packet-filtering firewalls only examine Network Layer data, filtering out traffic according to the network address, the protocol used, or source and destination port data. Because they do not inspect the connection state of individual data packets, they are also called stateless firewalls. These firewalls are simple and they don’t support advanced inspection features. However, they offer low latency and high throughput, making them ideal for certain low-cost inline security applications. Stateful Inspection Firewalls When stateful firewalls inspect data packets, they capture details about active sessions and connection states. Recording this data provides visibility into the Transport layer and allows the firewall to make more complex decisions. For example, a stateful firewall can mitigate a denial-of-service attack by comparing a spike in incoming traffic against rules for making new connections – stateless firewalls don’t have a historical record of connections to look up. These firewalls are also called dynamic packet-filtering firewalls. They are generally more secure than stateless firewalls but may introduce latency because it takes time to inspect every data packet traveling through the network. Circuit-Level Gateways Circuit-level gateways act as a proxy between two devices attempting to connect with one another. These firewalls work on the Session layer of the OSI model, performing the TCP handshake on behalf of a protected internal server. This effectively hides valuable information about the internal host, preventing attackers from conducting reconnaissance into potential targets. Instead of inspecting individual data packets, these firewalls translate internal IP addresses to registered Network Address Translation (NAT) addresses. NAT rules allow organizations to protect servers and endpoints by preventing their internal IP address from being public knowledge. 2. Next-Generation Firewalls (NGFWs) Traditional firewalls only address threats from a few layers in the OSI model. Advanced threats can bypass these Network and Transport Layer protections to attack web applications directly. To address these threats, firewalls must be able to analyze individual users, devices, and data assets as they travel through complex enterprise networks. Next-generation firewalls achieve this by looking beyond the port and protocol data of individual packets and sessions. This grants visibility into sophisticated threats that simpler firewalls would overlook. For example, a traditional firewall may block traffic from an IP address known for conducting denial-of-service attacks. Hackers can bypass this by continuously changing IP addresses to confuse and overload the firewall, which may allow routing malicious traffic to vulnerable assets. A next-generation firewall may notice that all this incoming traffic carries the same malicious content. It may act as a TCP proxy and limit the number of new connections made per second. When illegitimate connections fail the TCP handshake, it can simply drop them without causing the organization’s internal systems to overload. This is just one example of what next-gen firewalls are capable of. Most modern firewall products combine a wide variety of technologies to provide comprehensive perimeter security against comprehensive cyber attacks. How do NGFWs Enhance Network Security? Deep Packet Inspection (DPI) : NGFWs go beyond basic packet filtering by inspecting the content of data packets. They analyze the actual data payload and not just header information. This allows them to identify and block threats within the packet content, such as malware, viruses, and suspicious patterns. Application-Level Control : NGFWs can identify and control applications and services running on the network. This enables administrators to define and enforce policies based on specific applications, rather than just port numbers. For example, you can allow or deny access to social media sites or file-sharing applications. Intrusion Prevention Systems (IPS) : NGFWs often incorporate intrusion prevention capabilities. They can detect and prevent known and emerging cyber threats by comparing network traffic patterns against a database of known attack signatures. This proactive approach helps protect against various cyberattacks. Advanced Threat Detection: NGFWs use behavioral analysis and heuristics to detect and block unknown or zero-day threats. By monitoring network traffic for anomalies, they can identify suspicious behavior and take action to mitigate potential threats. U ser and Device Identification : NGFWs can associate network traffic with specific users or devices, even in complex network environments. This user/device awareness allows for more granular security policies and helps in tracking and responding to security incidents effectively. Integration with Security Ecosystem : NGFWs often integrate with other security solutions, such as antivirus software, intrusion detection systems (IDS), and security information and event management (SIEM) systems. This collaborative approach provides a multi-layered defense strategy . Security Automation : NGFWs can automate threat response and mitigation. For example, they can isolate compromised devices from the network or initiate other predefined actions to contain threats swiftly. In a multi-layered security environment, these firewalls often enforce the policies established by security orchestration, automation, and response (SOAR) platforms. Content Filtering : NGFWs can filter web content, providing URL filtering and content categorization. This helps organizations enforce internet usage policies and block access to potentially harmful or inappropriate websites. Some NGFWs can even detect outgoing user credentials (like an employee’s Microsoft account password) and prevent that content from leaving the network. VPN and Secure Remote Access : NGFWs often include VPN capabilities to secure remote connections. This is crucial for ensuring the security of remote workers and branch offices. Advanced firewalls may also be able to identify malicious patterns in external VPN traffic, protecting organizations from threat actors hiding behind encrypted VPN providers. Cloud-Based Threat Intelligence : Many NGFWs leverage cloud-based threat intelligence services to stay updated with the latest threat information. This real-time threat intelligence helps NGFWs identify and block emerging threats more effectively. Scalability and Performance : NGFWs are designed to handle the increasing volume of network traffic in modern networks. They offer improved performance and scalability, ensuring that security does not compromise network speed. Logging and Reporting : NGFWs generate detailed logs and reports of network activity. These logs are valuable for auditing, compliance, and forensic analysis, helping organizations understand and respond to security incidents. 3. Proxy Firewalls Proxy firewalls are also called application-level gateways or gateway firewalls. They define which applications a network can support, increasing security but demanding continuous attention to maintain network functionality and efficiency. Proxy firewalls provide a single point of access allowing organizations to assess the threat posed by the applications they use. It conducts deep packet inspection and uses proxy-based architecture to mitigate the risk of Application Layer attacks. Many organizations use proxy servers to segment the parts of their network most likely to come under attack. Proxy firewalls can monitor the core internet protocols these servers use against every application they support. The proxy firewall centralizes application activity into a single server and provides visibility into each data packet processed. This allows the organization to maintain a high level of security on servers that make tempting cyberattack targets. However, these servers won’t be able to support new applications without additional firewall configuration. These types of firewalls work well in highly segmented networks that allow organizations to restrict access to sensitive data without impacting usability and production. 4. Hardware Firewalls Hardware firewalls are physical devices that secure the flow of traffic between devices in a network. Before cloud computing became prevalent, most firewalls were physical hardware devices. Now, organizations can choose to secure on-premises network infrastructure using hardware firewalls that manage the connections between routers, switches, and individual devices. While the initial cost of acquiring and configuring a hardware firewall can be high, the ongoing overhead costs are smaller than what software firewall vendors charge (often an annual license fee). This pricing structure makes it difficult for growing organizations to rely entirely on hardware devices. There is always a chance that you end up paying for equipment you don’t end up using at full capacity. Hardware firewalls offer a few advantages over software firewalls: They avoid using network resources that could otherwise go to value-generating tasks. They may end up costing less over time than a continuously renewed software firewall subscription fee. Centralized logging and monitoring can make hardware firewalls easier to manage than complex software-based deployments. 5. Software Firewalls Many firewall vendors provide virtualized versions of their products as software. They typically charge an annual licensing fee for their firewall-as-a-service product, which runs on any suitably provisioned server or device. Some software firewall configurations require the software to be installed on every computer in the network, which can increase the complexity of deployment and maintenance over time. If firewall administrators forget to update a single device, it may become a security vulnerability. At the same time, these firewalls don’t have their own operating systems or dedicated system resources available. They must draw computing power and memory from the devices they are installed on. This leaves less power available for mission-critical tasks. However, software firewalls carry a few advantages compared to hardware firewalls: The initial subscription-based cost is much lower, and many vendors offer a price structure that ensures you don’t pay for resources you don’t use. Software firewalls do not take up any physical space, making them ideal for smaller organizations. The process of deploying software firewalls often only takes a few clicks. With hardware firewalls, the process can involve complex wiring and time-consuming testing. Advanced Threats and Firewall Solutions Most firewalls are well-equipped to block simple threats, but advanced threats can still cause problems. There are many different types of advanced threats designed to bypass standard firewall policies. Advanced Persistent Threats (APTs) often compromise high-level user accounts and slowly spread throughout the network using lateral movement. They may move slowly, gathering information and account credentials over weeks or months before exfiltrating the data undetected. By moving slowly, these threats avoid triggering firewall rules. Credential-based attacks bypass simple firewall rules by using genuine user credentials to carry out attacks. Since most firewall policies trust authenticated users, attackers can easily bypass rules by stealing user account credentials. Simple firewalls can’t distinguish between normal traffic and malicious traffic by an authenticated, signed-in user. Malicious insiders can be incredibly difficult to detect. These are genuine, authenticated users who have decided to act against the organization’s interest. They may already know how the firewall system works, or have privileged access to firewall configurations and policies. Combination attacks may target multiple security layers with separate, independent attacks. For example, your cloud-based firewalls may face a Distributed Denial of Service (DDoS) attack while a malicious insider exfiltrates information from the cloud. These tactics allow hackers to coordinate attacks and cover their tracks. Only next-generation firewalls have security features that can address these types of attack. Anti-data exfiltration tools may prevent users from sending their login credentials to unsecured destinations, or prevent large-scale data exfiltration altogether. Identity-based policies may block authenticated users from accessing assets they do not routinely use. Firewall Configuration and Security Policies The success of any firewall implementation is determined by the quality of its security rules. These rules decide which types of traffic the firewall will allow to pass, and what traffic it will block. In a modern network environment, this is done using four basic types of firewall rules: Access Control Lists (ACLs). These identify the users who have permission to access a certain resource or asset. They may also dictate which operations are allowed on that resource or asset. Network Address Translation (NAT) rules. These rules protect internal devices by hiding their original IP address from the public Internet. This makes it harder for hackers to gain unauthorized access to system resources because they can’t easily target individual devices from outside the network. Stateful packet filtering . This is the process of inspecting data packets in each connection and determining what to do with data flows that do not appear genuine. Stateful firewalls keep track of existing connections, allowing them to verify the authentication of incoming data that claims to be part of an already established connection. Application-level gateways. These firewall rules provide application-level protection, preventing hackers from disguising malicious traffic as data from (or for) an application. To perform this kind of inspection, the firewall must know what normal traffic looks like for each application on the network, and be able to match incoming traffic with those applications. Network Performance and Firewalls Firewalls can impact network performance and introduce latency into networks. Optimizing network performance with firewalls is a major challenge in any firewall implementation project. Firewall experts use a few different approaches to reduce latency and maintain fast, reliable network performance: Installing hardware firewalls on high-volume routes helps, since separate physical devices won’t draw computing resources away from other network devices. Using software firewalls in low-volume situations where flexibility is important. Sometimes, being able to quickly configure firewall rules to adapt to changing business conditions can make a major difference in overall network performance. Configuring servers to efficiently block unwanted traffic is a continuous process. Server administrators should avoid overloading firewalls with denied outbound requests that strain firewalls at the network perimeter. Firewall administrators should try to distribute unwanted traffic across multiple firewalls and routers instead of allowing it to concentrate on one or two devices. They should also try reducing the complexity of the firewall rule base and minimize overlapping rules. Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... Short answer* By submitting this form, I accept AlgoSec's privacy policy Schedule a call

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Nick Ellsmore is an Australian cybersecurity professional whose thoughts on the future of cybersecurity are always insightful. Having a... Cloud Security Errare humanum est Rony Moshkovich 2 min read Rony Moshkovich Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 11/25/21 Published Nick Ellsmore is an Australian cybersecurity professional whose thoughts on the future of cybersecurity are always insightful. Having a deep respect for Nick, I really enjoyed listening to his latest podcast “Episode 79 Making the cyber sector redundant with Nick Ellsmore” . As Nick opened the door to debate on “all the mildly controversial views” he has put forward in the podcast, I decided to take a stab at a couple of points made by Nick. For some mysterious reason, these points have touched my nerve. So, here we go. Nick: The cybersecurity industry, we spent so long trying to get people to listen to us and take the issue seriously, you know, we’re now getting that, you know. Are the businesses really responding because we were trying to get people to listen to us? Let me rephrase this question. Are the businesses really spending more on cybersecurity because we were trying to get people to listen to us? The “cynical me” tells me No. Businesses are spending more on cybersecurity because they are losing more due to cyber incidents. It’s not the number of incidents; it’s their impact that is increasingly becoming devastating. Over the last ten years, there were plenty of front-page headliners that shattered even seemingly unshakable businesses and government bodies. Think of Target attack in 2013, the Bank of Bangladesh heist in 2016, Equifax breach in 2017, SolarWinds hack in 2020 .. the list goes on. We all know how Uber tried to bribe attackers to sweep the stolen customer data under the rug. But how many companies have succeeded in doing so without being caught? How many cyber incidents have never been disclosed? These headliners don’t stop. Each of them is another reputational blow, impacted stock options, rolled heads, stressed-out PR teams trying to play down the issue, knee-jerk reaction to acquire snake-oil-selling startups, etc. We’re not even talking about skewed election results (a topic for another discussion). Each one of them comes at a considerable cost. So no wonder many geniuses now realise that spending on cybersecurity can actually mitigate those risks. It’s not our perseverance that finally started paying off. It’s their pockets that started hurting. Nick: I think it’s important that we don’t lose sight of the fact that this is actually a bad thing to have to spend money on. Like, the reason that we’re doing this is not healthy. .. no one gets up in the morning and says, wow, I can’t wait to, you know, put better locks on my doors. It’s not the locks we sell. We sell gym membership. We want people to do something now to stop bad things from happening in the future. It’s a concept of hygiene, insurance, prevention, health checks. People are free not to pursue these steps, and run their business the way they used to .. until they get hacked, get into the front page, wondering first “Why me?” and then appointing a scapegoat. Nick: And so I think we need to remember that, in a sense, our job is to create the entire redundancy of this sector. Like, if we actually do our job, well, then we all have to go and do something else, because security is no longer an issue. It won’t happen due to 2 main reasons. Émile Durkheim believed in a “society of saints”. Unfortunately, it is a utopia. Greed, hunger, jealousy, poverty are the never-ending satellites of the human race that will constantly fuel crime. Some of them are induced by wars, some — by corrupt regimes, some — by sanctions, some — by imperfect laws. But in the end — there will always be Haves and Have Nots, and therefore, fundamental inequality. And that will feed crime. “Errare humanum est” , Seneca. To err is human. Because of human errors, there will always be vulnerabilities in code. Because of human nature (and as its derivative, geopolitical or religious tension, domination, competition, nationalism, fight for resources), there will always be people willing to and capable of exploiting those vulnerabilities. Mix those two ingredients — and you get a perfect recipe for cybercrime. Multiply that with never-ending computerisation, automation, digital transformation, and you get a constantly growing attack surface. No matter how well we do our job, we can only control cybercrime and keep the lid on it, but we can’t eradicate it. Thinking we could would be utopic. Another important consideration here is budget constraints. Building proper security is never fun — it’s a tedious process that burns cash but produces no tangible outcome. Imagine a project with an allocated budget B to build a product P with a feature set F, in a timeframe T. Quite often, such a project will be underfinanced, potentially leading to a poor choice of coders, overcommitted promises, unrealistic expectations. Eventually leading to this (oldie, but goldie): Add cybersecurity to this picture, and you’ll get an extra step that seemingly complicates everything even further: The project investors will undoubtedly question why that extra step was needed. Is there a new feature that no one else has? Is there a unique solution to an old problem? None of that? Then what’s the justification for such over-complication? Planning for proper cybersecurity built-in is often perceived as FUD. If it’s not tangible, why do we need it? Customers won’t see it. No one will see it. Scary stories in the press? Nah, that’ll never happen to us. In some way, extra budgeting for cybersecurity is anti-capitalistic in nature. It increases the product cost and, therefore, its price, making it less competitive. It defeats the purpose of outsourcing product development, often making outsourcing impossible. From the business point of view, putting “Sec” into “DevOps” does not make sense. That’s Ok. No need. .. until it all gloriously hits the fan, and then we go back to STEP 1. Then, maybe, just maybe, the customer will say, “If we have budgeted for that extra step, then maybe we would have been better off”. Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... 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AlgoSec’s latest product release provides application-based risk analysis and enhanced support for cloud platforms Extend application connectivity visibility into the multicloud with AlgoSec A32.20 AlgoSec’s latest product release provides application-based risk analysis and enhanced support for cloud platforms May 3, 2022 Speak to one of our experts RIDGEFIELD PARK, N.J., May 3, 2022 – AlgoSec , the application connectivity and security policy company, announced today the release of its latest product version A32.20. AlgoSec’s A32.20 provides a powerful solution for organizations to manage security in their hybrid and multi-cloud estate. With A32.20, organizations obtain granular application visibility and discovery, allowing them to identify and analyze risk in their multicloud environment, including AWS, GCP and Azure. The key benefits that AlgoSec A32.20 delivers to IT, network and security experts include: Application-based risk analysis in the Cloud Enables SecOps teams to shift focus of risk analysis and remediation efforts to specific business applications beyond risk categories. PAN Prisma access support As an early availability, A32.20 supports Prisma Access visibility for remote networks and service connections, a true industry leading technology of this kind. GCP risk support A32.20 provides advanced capabilities to support discovery of GCP related risks across the hybrid network estate and multiple public clouds Extended support of NSX in AWS As an early availability, A32.20 offers extended cloud support for NSX running on AWS in addition to the existing on-premise support. “With this release, A32.20 offers new powerful cloud coverage, including PAN Prisma access. This gives customers the ability to deploy apps in the cloud and on-premise faster than ever before”, said Eran Shiff, Vice President of Product at AlgoSec. “A32.20 provides a comprehensive solution for organizations to secure application connectivity, reduce risk and ensure continuous compliance while undergoing digital transformation.” About AlgoSec AlgoSec, a global cybersecurity leader, empowers organizations to secure application connectivity by automating connectivity flows and security policy, anywhere. The AlgoSec platform enables the world’s most complex organizations to gain visibility, reduce risk and process changes at zero-touch across the hybrid network. AlgoSec’s patented application-centric view of the hybrid network enables business owners, application owners, and information security professionals to talk the same language, so organizations can deliver business applications faster while achieving a heightened security posture. Over 1,800 of the world’s leading organizations trust AlgoSec to help secure their most critical workloads across public cloud, private cloud, containers, and on-premises networks, while taking advantage of almost two decades of leadership in Network Security Policy Management. See what securely accelerating your digital transformation, move-to-cloud, infrastructure modernization, or micro-segmentation initiatives looks like at www.algosec.com

Modern organizations face a wide and constantly changing range of network security threats, and security leaders must constantly update... Network Security Network Security Threats & Solutions for Cybersecurity Leaders Tsippi Dach 2 min read Tsippi Dach Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 2/11/24 Published Modern organizations face a wide and constantly changing range of network security threats, and security leaders must constantly update their security posture against them. As threat actors change their tactics, techniques, and procedures, exploit new vulnerabilities , and deploy new technologies to support their activities — it’s up to security teams to respond by equipping themselves with solutions that address the latest threats. The arms race between cybersecurity professionals and cybercriminals is ongoing. During the COVID-19 pandemic, high-profile ransomware attacks took the industry by storm. When enterprise security teams responded by implementing secure backup functionality and endpoint detection and response, cybercriminals shifted towards double extortion attacks. The cybercrime industry constantly invests in new capabilities to help hackers breach computer networks and gain access to sensitive data. Security professionals must familiarize themselves with the latest network security threats and deploy modern solutions that address them. What are the Biggest Network Security Threats? 1. Malware-based Cyberattacks Malware deserves a category of its own because so many high-profile attacks rely on malicious software to work. These include everything from the Colonial Pipeline Ransomware attack to historical events like Stuxnet . Broadly speaking, cyberattacks that rely on launching malicious software on computer systems are part of this category. There are many different types of malware-based cyberattacks, and they vary widely in scope and capability. Some examples include: Viruses. Malware that replicates itself by inserting its own code into other applications are called viruses. They can spread across devices and networks very quickly. Ransomware. This type of malware focuses on finding and encrypting critical data on the victim’s network and then demanding payment for the decryption key. Cybercriminals typically demand payment in the form of cryptocurrency, and have developed a sophisticated industrial ecosystem for conducting ransomware attacks. Spyware. This category includes malware variants designed to gather information on victims and send it to a third party without your consent. Sometimes cybercriminals do this as part of a more elaborate cyberattack. Other times it’s part of a corporate espionage plan. Some spyware variants collect sensitive information that cybercriminals value highly. Trojans. These are malicious applications disguised as legitimate applications. Hackers may hide malicious code inside legitimate software in order to trick users into becoming victims of the attack. Trojans are commonly hidden as an email attachment or free-to-download file that launches its malicious payload after being opened in the victim’s environment. Fileless Malware. This type of malware leverages legitimate tools native to the IT environment to launch an attack. This technique is also called “living off the land” because hackers can exploit applications and operating systems from inside, without having to download additional payloads and get them past firewalls. 2. Network-Based Attacks These are attacks that try to impact network assets or functionality, often through technical exploitations. Network-based attacks typically start at the edge of the network, where it sends and receives traffic to the public internet. Distributed Denial-of-Service (DDoS) Attacks. These attacks overwhelm network resources, leading to downtime and service unavailability, and in some cases, data loss . To launch DDoS attacks, cybercriminals must gain control over a large number of compromised devices and turn them into bots. Once thousands (or millions) of bots using unique IP addresses request server resources, the server breaks down and stops functioning. Man-in-the-Middle (MitM) Attacks: These attacks let cybercriminals eavesdrop on communications between two parties. In some cases, they can also alter the communications between both parties, allowing them to plan and execute more complex attacks. Many different types of man-in-the-middle attacks exist, including IP spoofing, DNS spoofing, SSL stripping, and others. 3. Social Engineering and Phishing These attacks are not necessarily technical exploits. They focus more on abusing the trust that human beings have in one another. Usually, they involve the attacker impersonating someone in order to convince the victim to give up sensitive data or grant access to a secure asset. Phishing Attacks. This is when hackers create fake messages telling victims to take some kind of action beneficial to the attacker. These deceptive messages can result in the theft of login credentials, credit card information, or more. Most major institutions are regularly impersonated by hackers running phishing scams, like the IRS . Social Engineering Attacks. These attacks use psychological manipulation to trick victims into divulging confidential information. A common example might be a hacker contacting a company posing as a third-party technology vendor, asking for access to a secure system, or impersonating the company CEO and demanding an employee pay a fictitious invoice. 4. Insider Threats and Unauthorized Access These network security threats are particularly dangerous because they are very difficult to catch. Most traditional security tools are not configured to detect malicious insiders, who generally have permission to access sensitive data and assets. Insider Threats. Employees, associates, and partners with access to sensitive data may represent severe security risks. If an authorized user decides to steal data and sell it to a hacker or competitor, you may not be able to detect their attack using traditional security tools. That’s what makes insider threats so dangerous, because they are often undetectable. Unauthorized Access. This includes a broad range of methods used to gain illegal access to networks or systems. The goal is usually to steal data or alter it in some way. Attackers may use credential-stuffing attacks to access sensitive networks, or they can try brute force methods that involve automatically testing millions of username and password combinations until they get the right one. This often works because people reuse passwords that are easy to remember. Solutions to Network Security Threats Each of the security threats listed above comes with a unique set of risks, and impacts organizations in a unique way. There is no one-size-fits-all solution to navigating these risks. Every organization has to develop a cybersecurity policy that meets its specific needs. However, the most secure organizations usually share the following characteristics. Fundamental Security Measures Well-configured Firewalls. Firewalls control incoming and outgoing network traffic based on security rules. These rules can deny unauthorized traffic attempting to connect with sensitive network assets and block sensitive information from traveling outside the network. In each case, robust configuration is key to making the most of your firewall deployment . Choosing a firewall security solution like AlgoSec can dramatically improve your defenses against complex network threats. Anti-malware and Antivirus Software. These solutions detect and remove malicious software throughout the network. They run continuously, adapting their automated scans to include the latest threat detection signatures so they can block malicious activity before it leads to business disruption. Since these tools typically rely on threat signatures, they cannot catch zero-day attacks that leverage unknown vulnerabilities. Advanced Protection Tools Intrusion Prevention Systems. These security tools monitor network traffic for behavior that suggests unauthorized activity. When they find evidence of cyberattacks and security breaches, they launch automated responses that block malicious activity and remove unauthorized users from the network. Network Segmentation. This is the process of dividing networks into smaller segments to control access and reduce the attack surface. Highly segmented networks are harder to compromise because hackers have to repeatedly pass authentication checks to move from one network zone to another. This increases the chance that they fail, or generate activity unusual enough to trigger an alert. Security and Information Event Management (SIEM) platforms. These solutions give security analysts complete visibility into network and application activity across the IT environment. They capture and analyze log data from firewalls, endpoint devices, and other assets and correlate them together so that security teams can quickly detect and respond to unauthorized activity, especially insider threats. Endpoint Detection and Response (EDR). These solutions provide real-time visibility into the activities of endpoint devices like laptops, desktops, and mobile phones. They monitor these devices for threat indicators and automatically respond to identified threats before they can reach the rest of the network. More advanced Extended Detection and Response (XDR) solutions draw additional context and data from third party security tools and provide in-depth automation . Authentication and Access Control Multi-Factor Authentication (MFA). This technology enhances security by requiring users to submit multiple forms of verification before accessing sensitive data. This makes it useful against phishing attacks, social engineering, and insider threats, because hackers need more than just a password to gain entry to secure networks. MFA also plays an important role in Zero Trust architecture. Strong Passwords and Access Policies. There is no replacement for strong password policies and securely controlling user access to sensitive data. Security teams should pay close attention to password policy compliance, making sure employees do not reuse passwords across accounts and avoid simple memory hacks like adding sequential numbers to existing passwords. Preventing Social Engineering and Phishing While SIEM platforms, MFA policies and strong passwords go a long way towards preventing social engineering and phishing attacks, there are a few additional security measures worth taking to reduce these risks: Security Awareness Training. Leverage a corporate training LMS to educate employees about phishing and social engineering tactics. Phishing simulation exercises can help teach employees how to distinguish phishing messages from legitimate ones, and pinpoint the users at highest risk of falling for a phishing scam. Email Filtering and Verification: Email security tools can identify and block phishing emails before they arrive in the inbox. They often rely on scanning the reputation of servers that send incoming emails, and can detect discrepancies in email metadata that suggest malicious intent. Even if these solutions generally can’t keep 100% of malicious emails out of the inbox, they significantly reduce email-related threat risks. Dealing with DDoS and MitM Attacks These technical exploits can lead to significant business disruption, especially when undertaken by large-scale threat actors with access to significant resources. Your firewall configuration and VPN policies will make the biggest difference here: DDoS Prevention Systems. Protect against distributed denial of service attacks by implementing third-party DDoS prevention solutions, deploying advanced firewall configurations, and using load balancers. Some next generation firewalls (NGFWs) can increase protection against DDoS attacks by acting as a handshake proxy and dropping connection requests that do not complete the TCP handshake process. VPNs and Encryption: VPNs provide secure communication channels that prevent MitM attacks and data eavesdropping. Encrypted traffic can only be intercepted by attackers who go through the extra step of obtaining the appropriate decryption key. This makes it much less likely they focus on your organization instead of less secure ones that are easier to target. Addressing Insider Threats Insider threats are a complex security issue that require deep, multi-layered solutions to address. This is especially true when malicious insiders are actually employees with legitimate user credentials and privileges. Behavioral Auditing and Monitoring: Regular assessments and monitoring of user activities and network traffic are vital for detecting insider threats . Security teams need to look beyond traditional security deployments and gain insight into user behaviors in order to catch authorized users doing suspicious things like escalating their privileges or accessing sensitive data they do not normally access. Zero Trust Security Model. Assume no user or device is trustworthy until verified. Multiple layers of verification between highly segmented networks — with multi-factor authentication steps at each layer — can make it much harder for insider threats to steal data and conduct cyberattacks. Implementing a Robust Security Strategy Directly addressing known threats should be just one part of your cybersecurity strategy. To fully protect your network and assets from unknown risks, you must also implement a strong security posture that can address risks associated with new and emerging cyber threats. Continual Assessment and Improvement The security threat landscape is constantly changing, and your security posture must adapt and change in response. It’s not always easy to determine exactly how your security posture should change, which is why forward-thinking security leaders periodically invest in vulnerability assessments designed to identify security vulnerabilities that may have been overlooked. Once you have a list of security weaknesses you need to address, you can begin the process of proactively addressing them by configuring your security tech stack and developing new incident response playbooks. These playbooks will help you establish a coordinated, standardized response to security incidents and data breaches before they occur. Integration of Security Tools Coordinating incident response plans isn’t easy when every tool in your tech stack has its own user interface and access control permissions. You may need to integrate your security tools into a single platform that allows security teams to address issues across your entire network from a single point of reference. This will help you isolate and address security issues on IoT devices and mobile devices without having to dedicate a particular team member exclusively to that responsibility. If a cyberattack that targets mobile apps occurs, your incident response plan won’t be limited by the bottleneck of having a single person with sufficient access to address it. Similarly, highly integrated security tools that leverage machine learning and automation can enhance the scalability of incident response and speed up incident response processes significantly. Certain incident response playbooks can be automated entirely, providing near-real-time protection against sophisticated threats and freeing your team to focus on higher-impact strategic initiatives. Developing and Enforcing Security Policies Developing and enforcing security policies is one of the high-impact strategic tasks your security team should dedicate a great deal of time and effort towards. Since the cybersecurity threat landscape is constantly changing, you must commit to adapting your policies in response to new and emerging threats quickly. That means developing a security policy framework that covers all aspects of network and data security. Similarly, you can pursue compliance with regulatory standards that ensure predictable outcomes from security incidents. Achieving compliance with standards like NIST, CMMC, PCI-DSS, and HIPPA can help you earn customers’ trust and open up new business opportunities. AlgoSec: Your Partner in Network Security Protecting against network threats requires continuous vigilance and the ability to adapt to fast-moving changes in the security landscape. Every level of your organization must be engaged in security awareness and empowered to report potential security incidents. Policy management and visibility platforms like AlgoSec can help you gain control over your security tool configurations. This enhances the value of continuous vigilance and improvement, and boosts the speed and accuracy of policy updates using automation. Consider making AlgoSec your preferred security policy automation and visibility platform. Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... Short answer* By submitting this form, I accept AlgoSec's privacy policy Schedule a call

Cloud Security is a broad domain with many different aspects, some of them human. Even the most sophisticated and secure systems can be... Cloud Security CSPM importance for CISOs. What security issues can be prevented\defended with CSPM? Rony Moshkovich 2 min read Rony Moshkovich Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 6/17/21 Published Cloud Security is a broad domain with many different aspects, some of them human. Even the most sophisticated and secure systems can be jeopardized by human elements such as mistakes and miscalculations. Many organizations are susceptible to such dangers, especially during critical tech configurations and transfers. Especially for example, during digital transformation and cloud migration may result in misconfigurations that can leave your critical applications vulnerable and your company’s sensitive data an easy target for cyber-attacks. The good news is that Prevasio, and other cybersecurity providers have brought in new technologies to help improve the cybersecurity situation across multiple organizations. Today, we discuss Cloud Security Posture Management (CSPM) and how it can help prevent not just misconfigurations in cloud systems but also protect against supply chain attacks. Understanding Cloud Security Posture Management First, we need to fully understand what a CSPM is before exploring how it can prevent cloud security issues. CSPM is first of all a practice for adopting security best practices as well as automated tools to harden and manage the company security strength across various cloud based services such as Software as a Service (SaaS), Infrastructure as a Service (IaaS), and Platform as a Service (PaaS). These practices and tools can be used to determine and solve many security issues within a cloud system. Not only is CSPM critical to the growth and integrity of your cloud infrastructure, but it’s also mandatory for organizations with CIS, GDPR, PCI-DSS, NIST, HIPAA and similar compliance requirements. How Does CSPM Work? There are numerous cloud service providers such as AWS , Azure , Google Cloud, and others that provide hyper scaling cloud hosted platforms as well as various cloud compute services and solutions to organizations that previously faced many hurdles with their on-site cloud infrastructures. When you migrate your organization to these platforms, you can effectively scale up and cut down on on-site infrastructure spending. However, if not appropriately handled, cloud migration comes with potential security risks. For instance, an average Lift and Shift transfer that involves a legacy application may not be adequately security hardened or reconfigured for safe use in a public cloud setup. This may result in security loopholes that expose the network and data to breaches and attacks. Cloud misconfiguration can happen in multiple ways. However, the most significant risk is not knowing that you are endangering your organization with such misconfigurations. That being the case, below are a few examples of cloud misconfigurations that can be identified and solved by CSPM tools such as Prevasio within your cloud infrastructure: Improper identity and access management : Your organization may not have the best identity and access management system in place. For instance, lack of Multi-Factor Authentication (MFA) for all users, unreliable password hygiene, and discriminatory user policies instead of group access, Role-based access, and everything contrary to best practices, including least privilege. You are unable to log in to events in your cloud due to an accidental CloudTrail error. Cloud storage misconfigurations : Having unprotected S3 buckets on AWS or Azure. CSPM can compute situations that have the most vulnerabilities within applications Incorrect secret management : Secret credentials are more than user passwords or pins. They include encryption keys, API keys, among others. For instance, every admin must use encryption keys on the server-side and rotate the keys every 90 days. Failure to do this can lead to credentials misconfigurations. Ideally, part of your cloud package must include and rely on solutions such as AWS Secrets Manager , Azure Key Vault , and other secrets management solutions. The above are a mere few examples of common misconfigurations that can be found in your cloud infrastructure, but CSPM can provide additional advanced security and multiple performance benefits. Benefits Of CSPM CSPM manages your cloud infrastructure. Some of the benefits of having your cloud infrastructure secured with CSPM boils down to peace of mind, that reassurance of knowing that your organization’s critical data is safe. It further provides long-term visibility to your cloud networks, enables you to identify violations of policies, and allows you to remediate your misconfigurations to ensure proper compliance. Furthermore, CSPM provides remediation to safeguard cloud assets as well as existing compliance libraries. Technology is here to stay, and with CSPM, you can advance the cloud security posture of your organization. To summarize it all, here are what you should expect with CSPM cloud security: Risk assessment : CSPM tools can enable you to see your network security level in advance to gain visibility into security issues such as policy violations that expose you to risk. Continuous monitoring : Since CSPM tools are versatile they present an accurate view of your cloud system and can identify and instantly flag off policy violations in real-time. Compliance : Most compliance laws require the adoption of CIS, NIST, PCI-DSS, SOC2, HIPAA, and other standards in the cloud. With CSPM, you can stay ahead of internal governance, including ISO 27001. Prevention : Most CSPM allows you to identify potential vulnerabilities and provide practical recommendations to prevent possible risks presented by these vulnerabilities without additional vendor tools. Supply Chain Attacks : Some CSPM tools, such as Prevasio , provides you malware scanning features to your applications, data, and their dependency chain on data from external supply chains, such as git imports of external libraries and more. With automation sweeping every industry by storm, CSPM is the future of all-inclusive cloud security. With cloud security posture management, you can do more than remediate configuration issues and monitor your organization’s cloud infrastructure. You’ll also have the capacity to establish cloud integrity from existing systems and ascertain which technologies, tools, and cloud assets are widely used. CSPM’s capacity to monitor cloud assets and cyber threats and present them in user-friendly dashboards is another benefit that you can use to explore, analyze and quickly explain to your team(s) and upper management. Even find knowledge gaps in your team and decide which training or mentorship opportunities your security team or other teams in the organization might require. Who Needs Cloud Security Posture Management? At the moment, cloud security is a new domain that its need and popularity is growing by the day. CSPM is widely used by organizations looking to maximize in a safe way the most of all that hyper scaling cloud platforms can offer, such as agility, speed, and cost-cutting strategies. The downside is that the cloud also comes with certain risks, such as misconfigurations, vulnerabilities and internal\external supply chain attacks that can expose your business to cyber-attacks. CSPM is responsible for protecting users, applications, workloads, data, apps, and much more in an accessible and efficient manner under the Shared Responsibility Model. With CSPM tools, any organization keen on enhancing its cloud security can detect errors, meet compliance regulations, and orchestrate the best possible defenses. Let Prevasio Solve Your Cloud Security Needs Prevasio’s Next-Gen CSPM solution focus on the three best practices: light touch\agentless approach, super easy and user-friendly configuration, easy to read and share security findings context, for visibility to all appropriate users and stakeholders in mind. Our cloud security offerings are ideal for organizations that want to go beyond misconfiguration, legacy compliance or traditional vulnerability scanning. We offer an accelerated visual assessment of your cloud infrastructure, perform automated analysis of a wide range of cloud assets, identify policy errors, supply-chain threats, and vulnerabilities and position all these to your unique business goals. What we provide are prioritized recommendations for well-orchestrated cloud security risk mitigations. To learn more about us, what we do, our cloud security offerings, and how we can help your organization prevent cloud infrastructure attacks, read all about it here . Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... Short answer* By submitting this form, I accept AlgoSec's privacy policy Schedule a call

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A practical AWS security checklist will help you identify and address vulnerabilities quickly. In the process, ensure your cloud security... Cloud Security The Comprehensive 9-Point AWS Security Checklist Rony Moshkovich 2 min read Rony Moshkovich Short bio about author here Lorem ipsum dolor sit amet consectetur. Vitae donec tincidunt elementum quam laoreet duis sit enim. Duis mattis velit sit leo diam. Tags Share this article 2/20/23 Published A practical AWS security checklist will help you identify and address vulnerabilities quickly. In the process, ensure your cloud security posture is up-to-date with industry standards. This post will walk you through an 8-point AWS security checklist. We’ll also share the AWS security best practices and how to implement them. The AWS shared responsibility model AWS shared responsibility model is a paradigm that describes how security duties are split between AWS and its clients. This approach considers AWS a provider of cloud security architecture. And customers still protect their individual programs, data, and other assets. AWS’s Responsibility According to this model, AWS maintains the safety of the cloud structures. This encompasses the network, the hypervisor, the virtualization layer, and the physical protection of data centers. AWS also offers clients a range of safety precautions and services. They include surveillance tools, a load balancer, access restrictions, and encryption. Customer Responsibility As a customer, you are responsible for setting up AWS security measures to suit your needs. You also do this to safeguard your information, systems, programs, and operating systems. Customer responsibility entails installing reasonable access restrictions and maintaining user profiles and credentials. You can also watch for security issues in your work setting. Let’s compare the security responsibilities of AWS and its customers in a table: Comprehensive 8-point AWS security checklist 1. Identity and access management (IAM) 2. Logical access control 3. Storage and S3 4. Asset management 5. Configuration management. 6. Release and deployment management 7. Disaster recovery and backup 8. Monitoring and incidence management Identity and access management (IAM) IAM is a web service that helps you manage your company’s AWS access and security. It allows you to control who has access to your resources or what they can do with your AWS assets. Here are several IAM best practices: Replace access keys with IAM roles. Use IAM roles to provide AWS services and apps with the necessary permissions. Ensure that users only have permission to use the resources they need. Do this by implementing the concept of least privilege . Whenever communicating between a client and an ELB, use secure SSL versions. Use IAM policies to specify rights for user groups and centralized access management. Use IAM password policies to impose strict password restrictions on all users. Logical access control Logical access control involves controlling who accesses your AWS resources. This step also entails deciding the types of actions that users can perform on the resources. You can do this by allowing or denying access to specific people based on their position, job function, or other criteria. Logical access control best practices include the following: Separate sensitive information from less-sensitive information in systems and data using network partitioning Confirm user identity and restrict the usage of shared user accounts. You can use robust authentication techniques, such as MFA and biometrics. Protect remote connectivity and keep offsite access to vital systems and data to a minimum by using VPNs. Track network traffic and spot shady behavior using the intrusion detection and prevention systems (IDS/IPS). Access remote systems over unsecured networks using the secure socket shell (SSH). Storage and S3 Amazon S3 is a scalable object storage service where data may be stored and retrieved. The following are some storage and S3 best practices: Classify the data to determine access limits depending on the data’s sensitivity. Establish object lifecycle controls and versioning to control data retention and destruction. Use the Amazon Elastic Block Store (Amazon EBS) for this process. Monitor the storage and audit accessibility to your S3 buckets using Amazon S3 access logging. Handle encryption keys and encrypt confidential information in S3 using the AWS Key Management Service (KMS). Create insights on the current state and metadata of the items stored in your S3 buckets using Amazon S3 Inventory. Use Amazon RDS to create a relational database for storing critical asset information. Asset management Asset management involves tracking physical and virtual assets to protect and maintain them. The following are some asset management best practices: Determine all assets and their locations by conducting routine inventory evaluations. Delegate ownership and accountability to ensure each item is cared for and kept safe. Deploy conventional and digital safety safeguards to stop illegal access or property theft. Don’t use expired SSL/TLS certificates. Define standard settings to guarantee that all assets are safe and functional. Monitor asset consumption and performance to see possible problems and possibilities for improvement. Configuration management. Configuration management involves monitoring and maintaining server configurations, software versions, and system settings. Some configuration management best practices are: Use version control systems to handle and monitor modifications. These systems can also help you avoid misconfiguration of documents and code . Automate configuration updates and deployments to decrease user error and boost consistency. Implement security measures, such as firewalls and intrusion sensing infrastructure. These security measures will help you monitor and safeguard setups. Use configuration baselines to design and implement standard configurations throughout all platforms. Conduct frequent vulnerability inspections and penetration testing. This will enable you to discover and patch configuration-related security vulnerabilities. Release and deployment management Release and deployment management involves ensuring the secure release of software and systems. Here are some best practices for managing releases and deployments: Use version control solutions to oversee and track modifications to software code and other IT resources. Conduct extensive screening and quality assurance (QA) processes. Do this before publishing and releasing new software or updates. Use automation technologies to organize and distribute software upgrades and releases. Implement security measures like firewalls and intrusion detection systems. Disaster recovery and backup Backup and disaster recovery are essential elements of every organization’s AWS environment. AWS provides a range of services to assist clients in protecting their data. The best practices for backup and disaster recovery on AWS include: Establish recovery point objectives (RPO) and recovery time objectives (RTO). This guarantees backup and recovery operations can fulfill the company’s needs. Archive and back up data using AWS products like Amazon S3, flow logs, Amazon CloudFront and Amazon Glacier. Use AWS solutions like AWS Backup and AWS Disaster Recovery to streamline backup and recovery. Use a backup retention policy to ensure that backups are stored for the proper amount of time. Frequently test backup and recovery procedures to ensure they work as intended. Redundancy across many regions ensures crucial data is accessible during a regional outage. Watch for problems that can affect backup and disaster recovery procedures. Document disaster recovery and backup procedures. This ensures you can perform them successfully in the case of an absolute disaster. Use encryption for backups to safeguard sensitive data. Automate backup and recovery procedures so human mistakes are less likely to occur. Monitoring and incidence management Monitoring and incident management enable you to track your AWS environment and respond to any issues. Amazon web services monitoring and incident management best practices include: Monitoring API traffic and looking for any security risks with AWS CloudTrail. Use AWS CloudWatch to track logs, performance, and resource usage. Set up modifications to AWS resources and monitor for compliance problems using AWS Config. Combine and rank security warnings from various AWS user accounts and services using AWS Security groups. Using AWS Lambda and other AWS services to implement automated incident response procedures. Establish a plan for responding to incidents that specify roles and obligations and define a clear escalation path. Exercising incident response procedures frequently to make sure the strategy works. Checking for flaws in third-party applications and applying quick fixes. The use of proactive monitoring to find possible security problems before they become incidents. Train your staff on incident response best practices. This way, you ensure that they’ll respond effectively in case of an incident. Top challenges of AWS security DoS attacks A Distributed denial of service (DDoS) attack poses a huge security risk to AWS systems. It involves an attacker bombarding a network with traffic from several sources. In the process, straining its resources and rendering it inaccessible to authorized users. To minimize this sort of danger, your DevOps should have a thorough plan to mitigate this sort of danger. AWS offers tools and services, such as AWS Shield, to assist fight against DDoS assaults. Outsider AWS compromise. Hackers can use several strategies to get illegal access to your AWS account. For example, they may use psychological manipulation or exploit software flaws. Once outsiders gain access, they may use data outbound techniques to steal your data. They can also initiate attacks on other crucial systems. Insider threats Insiders with permission to access your AWS resources often pose a huge risk. They can damage the system by modifying or stealing data and intellectual property. Only grant access to authorized users and limit the access level for each user. Monitor the system and detect any suspicious activities in real-time. Root account access The root account has complete control over an AWS account and has the highest degree of access.Your security team should access the root account only when necessary. Follow AWS best practices when assigning root access to IAM users and parties. This way, you can ensure that only those who should have root access can access the server. Security best practices when using AWS Set strong authentication policies. A key element of AWS security is a strict authentication policy. Implement password rules, demanding solid passwords and frequent password changes to increase security. Multi-factor authentication (MFA) is a recommended security measure for access control. It involves a user providing two or more factors, such as an ID, password, and token code, to gain access. Using MFA can improve the security of your account. It can also limit access to resources like Amazon Machine Images (AMIs). Differentiate security of cloud vs. in cloud Do you recall the AWS cloud shared responsibility model? The customer handles configuring and managing access to cloud services. On the other hand, AWS provides a secure cloud infrastructure. It provides physical security controls like firewalls, intrusion detection systems, and encryption. To secure your data and applications, follow the AWS shared responsibility model. For example, you can use IAM roles and policies to set up virtual private cloud VPCs. Keep compliance up to date AWS provides several compliance certifications for HIPAA, PCI DSS, and SOC 2. The certifications are essential for ensuring your organization’s compliance with industry standards. While NIST doesn’t offer certifications, it provides a framework to ensure your security posture is current. AWS data centers comply with NIST security guidelines. This allows customers to adhere to their standards. You must ensure that your AWS setup complies with all legal obligations as an AWS client. You do this by keeping up with changes to your industry’s compliance regulations. You should consider monitoring, auditing, and remedying your environment for compliance. You can use services offered by AWS, such as AWS Config and AWS CloudTrail log, to perform these tasks. You can also use Prevasio to identify and remediate non-compliance events quickly. It enables customers to ensure their compliance with industry and government standards. The final word on AWS security You need a credible AWS security checklist to ensure your environment is secure. Cloud Security Posture Management solutions produce AWS security checklists. They provide a comprehensive report to identify gaps in your security posture and processes for closing them. With a CSPM tool like Prevasio , you can audit your AWS environment. And identify misconfigurations that may lead to vulnerabilities. It comes with a vulnerability assessment and anti-malware scan that can help you detect malicious activities immediately. In the process, your AWS environment becomes secure and compliant with industry standards. Prevasio comes as cloud native application protection platform (CNAPP). It combines CSPM, CIEM and all the other important cloud security features into one tool. This way, you’ll get better visibility of your cloud security on one platform. Try Prevasio today ! Schedule a demo Related Articles Navigating Compliance in the Cloud AlgoSec Cloud Mar 19, 2023 · 2 min read 5 Multi-Cloud Environments Cloud Security Mar 19, 2023 · 2 min read Convergence didn’t fail, compliance did. Mar 19, 2023 · 2 min read Speak to one of our experts Speak to one of our experts Work email* First name* Last name* Company* country* Select country... Short answer* By submitting this form, I accept AlgoSec's privacy policy Schedule a call

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Explore Algosec's customer success stories to see how organizations worldwide improve security, compliance, and efficiency with our solutions. Orange Cyberdefense Furnishes Application Delivery and Network Automation Organization Orange Cyberdefense Industry Retail & Manufacturing Headquarters Multinational Download case study Share Customer
success stories "We cut the time it takes to implement firewall rules by at least 50%" Application owners for global retail chain get faster response times with application visibility and automated deployment. Orange Cyberdefense is the expert cybersecurity business unit of the Orange Group, providing managed security, managed threat detection & response services to organizations around the globe. They embed security into Orange Business Services solutions with more than 250 security researchers and analysts and 16 SOCs distributed around the world supporting customers in over 160 countries. The Challenge Orange Cyberdefense is an on-site consultant for a large retail chain with hundreds of stores and hundreds of thousands of employees spread out across the world.The client has over 2,500 multi-vendor firewalls and Layer 3 devices in their global data centers. They also run hundreds of mission-critical business services. Business services include supply chain management and ERP systems, global eCommerce operations, financial management systems, and much more. As a result, they had to cope with hundreds of change requests daily.Some of the challenges included: Lack of centralized management – Multiple vendors’ firewalls are deployed, which were implemented by multiple third-party vendors. There was no validation that rules were consistently applied across multiple vendor’s management consoles. Commissioning and decommissioning devices – A mix of multi-vendor new and legacy devices run in the data center and maintaining consistency across multiple vendors and multiple versions of devices was difficult. Lack of automation – Firewall communication and traffic flows were described in Excel sheets and needed to be manually updated whenever there was a change. Slow execution of change requests – Implementing firewall changes took over a week. Poorly implemented rules – The rules did not reflect what the requester asked for. They either allowed too much traffic in or were too narrow, not allowing the required traffic and thus needed to be re-implemented. The Solution The client searched for a solution that provided: Faster implementation of firewall changes. Comprehensive firewall support for a globally dispersed multi-vendor, hybrid estate. Automation of security policy change management and documentation of security policy changes. Visibility into their business applications and traffic flows. They implemented the AlgoSec Security Policy Management Solution, made up of AlgoSec Firewall Analyzer, AlgoSec FireFlow, and AlgoSec AppViz and AppChange (formerly AlgoSec BusinessFlow). AlgoSec Firewall Analyzer analyzes complex network security policies across on-premise, cloud, and hybrid networks. It automates and simplifies security operations, including troubleshooting, auditing and risk analysis. Using Firewall Analyzer, the client can optimize the configuration of firewalls, and network infrastructure to ensure security and compliance. AlgoSec FireFlow enables security staff to automate the entire security policy change process from design and submission to proactive risk analysis, implementation, validation, and auditing. Its intelligent, automated workflows save time and improve security by eliminating manual errors and reducing risk. AlgoSec AppViz and AppChange (formerly AlgoSec BusinessFlow) discover, identify, and map business applications, providing critical security information regarding the firewalls and firewall rules supporting each connectivity flow. With AlgoSec AppChange, changes can be made at the business application level, including application migrations, server deployment, and decommissioning projects. The Results Some of the ways the client benefits from using AlgoSec include: Greater transparency by providing a single source of truth that took into consideration the entire network estate. 50% reduction in the time needed to implement firewall rules. More communication between network security/IT staff and business application owners who are now able to submit change requests in business language and easily describe their needs, thus reducing misconfigurations and potential breaches. Better compliance reporting – with both an easy API integration and also audit-ready compliance reports. Automated change management – network changes are now recorded while being made – not managed with Excel. By using AlgoSec, application owners have more visibility into the network and are better able to trace what has changed within their business applications. “Documentation is several hundred percent better this way,” said Hans Broomé, Network and Security Consultant at Orange Cyberdefense. “With many different versions of the services, by using AlgoSec the IT team is confident that they are making changes to the correct version.” There were even unexpected gains, such as improved security management procedures. Change requests became more accurate as they gained visibility into the network and made the change request process more systematic and transparent. Requesters, as well as stakeholders such as their managers, have full visibility of their change request’s status and can verify that the request works as intended. Orange Cyberdefense is also impressed with the dedicated attention they receive from AlgoSec. AlgoSec’s support team is familiar with the global organization and provides dedicated attention tailored to their exact needs. They stay up to date with the AlgoSec solution’s latest capabilities, and the technical team maximizes their use of it thanks to an extensive training library. “The best is yet to come,” concluded Broomé. Schedule time with one of our experts