Providing Out-of-Band Connectivity to Mission-Critical IT Resources

How Enterprise Network Security Software has Evolved for the Edge

Enterprise Network Security Software.

Modern enterprise networks are no longer contained to a single building or LAN. They’re highly distributed, with branch offices, remote employees, and global data centers that communicate and work together. That’s why traditional enterprise network security software—designed for on-premises infrastructure and castle-and-moat protection strategies—often struggles to secure the edge.

The challenge of traditional enterprise network security software at the edge

For years, enterprise network security followed the castle-and-moat approach. All the enterprise’s valuable systems and data are kept on the internal network (a.k.a. the castle), and a firewall creates a security perimeter (a.k.a. the moat) around those resources. This is easier to do when everything is housed in the same location. This becomes challenging (if not impossible) when those resources are spread across large geographical and logical distances.

For example, organizations may have a hard time extending their enterprise security policies to users, devices, and applications that aren’t on the main network. That goes beyond remote workers to also include cloud platforms and remote edge data centers. Some teams overcome this challenge by creating separate policies, but then they’re left with the logistical nightmare of updating and maintaining these policies across many different systems and locations. Due to errors or negligence, inconsistent security policies can leave gaps in your network security coverage.

In addition, traditional network security requires all remote traffic to be backhauled through the main firewall for inspection, creating a network bottleneck. That means all network requests worldwide must travel to the central data center, even if the traffic is ultimately destined for remote or cloud resources. This added network load can cause latency, timeouts, and other performance issues for the entire enterprise.

Challenges like these led to the evolution of enterprise network security software for edge deployments.

How enterprise network security software has evolved for the edge

Edge computing is all about moving resources closer to the users, systems, and applications that need them. Enterprise network security software for the edge does the same thing—it places security policies and controls in the cloud or small regional data centers, so remote systems and users don’t need to be routed back to the central network. The leading solution for edge security is Security Service Edge, or SSE.

SSE rolls up multiple security technologies into one integrated, cloud-based platform. Traffic from the edge is routed through the SSE security stack using SD-WAN (software-defined wide area networking). If that traffic is bound for cloud- or web-based resources, it’s allowed to bypass the central network entirely. Zero Trust Network Access (ZTNA) ensures safe and secure access if the traffic is destined for resources on the enterprise network.

Let’s discuss the specific technology that makes SSE the best solution for edge network security.

Zero Trust Network Access (ZTNA)

Zero Trust Network Access allows remote users and systems to access resources on the enterprise network, similar to a VPN. ZTNA is more secure than VPNs because it only gives users access to one specific resource at a time. They cannot jump around the network without re-authenticating and re-verifying trust. That means the lateral movement of a compromised account is limited, with malicious actors needing to re-verify their identity repeatedly, increasing their chances of getting caught.

ZTNA gives edge users and devices seamless access to the enterprise resources they need while reducing the risk of remote connections. It allows you to apply zero trust security principles to your network’s edge to ensure consistent security across your enterprise.

Firewall as a Service (FWaaS)

Firewall as a Service delivers network firewall capabilities as a cloud-based service. Incoming and outgoing edge traffic is routed through the FWaaS instead of the physical firewall in the data center, reducing the load on the enterprise network. FWaaS solutions for SSE typically include features like:

  • ❖URL/IP filtering
  • ❖Intrusion detection and prevention
  • ❖Network monitoring
  • ❖Deep packet inspection (DPI)

A Firewall as a Service is entirely cloud-based, which means you don’t need to deploy any additional hardware to edge locations. This also makes FWaaS easily scalable, allowing you to protect new branch offices or add additional features with the click of a button. FWaaS delivers powerful firewall functionality to the edge without expensive hardware or network bottlenecks.

Cloud Access Security Broker (CASB)

A Cloud Access Security Broker allows you to extend your enterprise security policies to cloud resources and traffic. The CASB acts as a gatekeeper between your enterprise network and the cloud, enforcing zero trust policies on any traffic flowing between the two. In an SSE solution, the CASB performs many functions, such as:

  • Analyzing the behavior of users and entities to determine if they’re trustworthy before allowing access to cloud resources. This is also known as User and Entity Behavior Analytics, or UEBA.
  • Using firewall and antivirus technology to detect malicious software (malware) and block it from entering the enterprise network
  • Using enterprise data governance policies to prevent data exfiltration, which is known as Data Loss Prevention (DLP).
  • Discovering, identifying, and analyzing all the enterprise’s cloud resources to determine relative risk. This is known as Cloud Discovery.

The CASB is what an SSE solution uses to extend your enterprise security policies to remote and cloud-based systems. This allows you to maintain precise and consistent zero trust policies across your distributed infrastructure, so your edge doesn’t become a weakness in your defense strategy.

SSE is powerful because it combines a complete security stack into one cloud-based service. That means you don’t have to force your edge resources into the perimeter created by traditional enterprise network security software.

Connecting your edge to SSE solutions

There’s still one critical component that’s missing: the technology that connects your edge resources and traffic to the SSE stack in the cloud. The most reliable and efficient on-ramp to an SSE solution is SD-WAN technology. SD-WAN creates a virtual overlay network on top of your WAN hardware, which enables automation and orchestration of remote, edge traffic management. SD-WAN uses intelligent routing to automatically separate edge traffic destined for the cloud, allowing it to bypass your firewall and flow through your SSE stack instead.

For example, the Nodegrid SD-WAN solution from ZPE Systems allows seamless integrations with SSE solutions. Placing Nodegrid Services Routers in your edge locations creates an access on-ramp to SSE and provides powerful branch networking functionality.

Learn more about securing your edge with SSE:

Top Security Service Edge Use Cases & Benefits for Enterprises
Security Service Edge (SSE) Implementation Guide for Enterprises
SSE Magic Quadrant: Key Takeaways of the 2022 Report

Want to learn more about network security software?

Watch a free demo of Nodegrid in action to see for yourself how enterprise network security software has evolved for the edge. Or get in contact with us!

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What Is Hybrid Cloud Infrastructure: Expectations vs. Reality

what is hybrid cloud infrastructure

Hybrid cloud deployments allow you to combine the best features of public cloud, private cloud, and on-premises infrastructure. But what exactly goes into hybrid cloud infrastructure, and how is it achieved? In this blog, we’ll compare the expectations of a hybrid cloud to the realities of implementation and provide advice on overcoming these challenges.

What is hybrid cloud infrastructure?

Hybrid cloud infrastructure involves using a combination of public cloud, private cloud, and on-premises data center environments. True hybrid cloud architecture allows you to move workloads back and forth among these environments safely and securely.

  • A public cloud is what most people think of when they hear cloud computing. Public cloud services are decoupled from the underlying infrastructure and delivered as a web-based application or platform. The actual compute resources are shared amongst many other customers. Examples of a public cloud include Microsoft 365 and Google Apps.
  • Private cloud infrastructure is owned and managed by a third-party provider, but other customers do not share the hardware you use. You rent dedicated storage and compute resources, but have no physical access to or control over the infrastructure. Examples of a private cloud include Microsoft Azure and Amazon Virtual Private Cloud (VPC).
  • An on-premises data center is a data center that your organization has complete control over. It may or may not be on the same premises as your headquarters office. Not all hybrid cloud infrastructures include on-premises environments—only public and private clouds are required.

The public cloud offers many benefits for enterprises, such as scalability and cost savings. However, organizations frequently need greater control over certain data and resources. For example, any company working with healthcare information, or providing services to the federal government, must follow strict privacy and security regulations. That’s why many organizations opt to keep some of their resources in on-premises data centers or private clouds.

That said, keeping these resources isolated from your public cloud services, applications, and data is not always feasible. There’s a need for interoperability and orchestration of workloads among mixed architectures. In a hybrid cloud infrastructure, there is a virtual service that acts as a managed “bridge” between different environments. This allows you to move workloads, applications, data, and other resources around as needed to ensure peak performance without compromising security.

Hybrid cloud infrastructure: expectations vs. reality

The expectation for hybrid cloud infrastructure is that all of your systems, services, and applications will work together seamlessly. Your data and other resources will be portable, so you can move them from one cloud to another without compatibility issues or other headaches. Most importantly, you’ll have a centralized, web-based platform to orchestrate workloads across your heterogenous environment. The reality of hybrid cloud, however, is often much more complicated.

Vendor lock-in

One major hurdle to implementing a hybrid network environment is closed ecosystems. Vendor lock-in can prevent your legacy on-premises solutions from interoperating with cloud hardware and software, and vice-versa. Data and applications designed for traditional infrastructure may be incompatible with cloud platforms. And not only do these systems all need to communicate and work together, but you also need an orchestration platform that can dig its hooks into disparate vendor solutions and control them equally.

Issues with vendor interoperability could force you to rebuild your entire stack just to enable hybrid orchestration. To get around this expensive and time-consuming challenge, you need a hybrid cloud infrastructure orchestration platform that’s based on an open architecture for true vendor neutrality. This will allow you to manage workloads across cloud and legacy environments without replacing the systems and software already in place.

Infrastructure complexity

Hybrid cloud infrastructure reduces the number of physical servers and storage devices you’re responsible for, so you might assume this will reduce the complexity of your network operations. This isn’t necessarily the case. The virtual and physical hardware responsibility is shifted to the cloud vendor, but your team will still need to know how to configure, monitor, and maintain all your cloud services.

In a hybrid cloud infrastructure, there are often many different platforms from different vendors. That means you need people who are experts in all these systems. Plus, you’ll also need a more complex network architecture to support a seamless hybrid cloud environment. That often means purchasing more boxes from more vendors, which your team must also learn to configure and maintain.

One way to reduce the complexity of your hybrid cloud infrastructure is by consolidating your networking stack. For example, you can use high-density serial console switches that provide out-of-band (OOB) management interfaces, network failover, environmental monitoring, and network switching. Similarly, you can look for modular, multi-function devices that allow you to create a custom box that includes all the specific hardware and functionality you need.This will reduce the number of devices in your rack and provide administrators with a single platform to manage all this functionality.

Spiraling costs

Cloud services are often less expensive to deploy and scale than on-premises infrastructure. Instead of a large up-front cost to purchase and install new hardware solutions, you typically pay a smaller recurring fee. When you need more resources, you simply upgrade your services for additional cost without needing to buy and configure more hardware.

The issue is that these recurring fees can begin to snowball over time, especially if you keep increasing your contract. Many cloud services often come in bundles or packages, meaning you can’t just pick and choose the functionality you need a la carte. So, you could end up paying for features you don’t even need.

Plus, you’ll incur additional costs if you need to rebuild part or all of your on-premises stack to enable hybrid cloud orchestration. The same goes for the networking technology that’s required for hybrid integrations. These expenses can be reduced by following the advice above—using a completely vendor-neutral hybrid cloud orchestration platform. Plus, consolidating and streamlining your infrastructure in as many ways as possible, such as with the hardware itself, but also with the software and management layers. For example, an OS allows you to easily/seamlessly integrate many different solutions, and a management platform allows you to manage everything from a normalized UI—rather than having to spend money on many different specialists.

Implementing a hybrid cloud infrastructure is often more challenging than organizations expect. However, by using vendor-neutral solutions and consolidating your tech stack, you can avoid vendor lock-in, reduce the complexity of your infrastructure, and keep costs in check.

Ready to simplify hybrid cloud infrastructure?

The Nodegrid infrastructure management solution from ZPE Systems enables true hybrid cloud orchestration. Nodegrid’s open architecture and vendor-neutral hardware can get its hooks into all your legacy, on-premises, and cloud solutions, so you have total control over your hybrid environment. With the ZPE Cloud management platform, you can monitor and orchestrate your entire infrastructure from behind one pane of glass.

Plus, Nodegrid’s consolidated networking hardware can help you reduce the complexity of your tech stack while still delivering all the features and functionality you need. Some of the world’s biggest tech companies are benefiting from this, by using Nodegrid to deploy and manage their hybrid infrastructures.

What is hybrid cloud infrastructure, and how can Nodegrid help you achieve it? 

Contact ZPE Systems to learn more.
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Part 2: Immutable Infrastructure: Best Practices for Network Professionals

immutable infrastructure best practices
Immutable infrastructure involves servers, network appliances, and other devices which are never updated or changed. In part 1 of our blog series, we discussed the most inherent challenges with the immutable infrastructure paradigm. This post will cover immutable infrastructure best practices that you should follow to overcome these challenges and fully embrace immutable principles in your enterprise.

Immutable infrastructure best practices for network professionals

Infrastructure as Code (IaC)

Infrastructure as code, or IaC, uses software abstraction to separate infrastructure configurations from the underlying hardware, allowing you to write configurations as repeatable scripts that you can deploy to many different devices. It also facilitates automation and orchestration through tools like RedHat Ansible, which stores and automatically executes configuration scripts according to predefined playbooks.

IaC is used traditionally for physical and virtual server configurations, but you can also use it to create and maintain virtualized network device configurations. This is sometimes called network infrastructure as code or software-defined networking (SDN). SDN goes beyond just abstracting configurations from the underlying networking hardware. It virtualizes your entire network, creating an overlay for managing and optimizing network routing, load balancing, segmentation, and more.

IaC is an immutable infrastructure best practice because it allows you to create and deploy configurations quickly and at scale. It enables truly immutable infrastructure that you can copy, delete, and replace at will. Without IaC, you must provision each new and updated instance manually. Even with a large team of engineers, updates could take a long time, and intermediate periods during which different versions of the same server or network configuration were active simultaneously will appear. Plus, manual configurations are error-prone, and mistakes could create vulnerabilities in your network.

Infrastructure as code and network infrastructure as code allow you to deploy virtual configurations programmatically and automatically. For immutable infrastructure, IaC is frequently used to deploy and configure images for containers and other virtualized environments.

Golden images

A golden image is a standardized template for physical or virtualized infrastructure. You start with a base image with only the software and settings required universally across all instances of that device. Then, you install any agents or services needed for monitoring, threat detection, analysis, etc. Finally, you harden the image with security policies and tools, and patch any known security vulnerabilities. Once the golden image is complete, you freeze it so no further changes can be made.

Best practices for creating, securing, and updating golden images for immutable infrastructure include:

  • Incorporate as many dependencies and settings as possible in your golden image to reduce the amount of configuration that needs to happen at deployment. This will ensure that the golden image you’ve tested and validated is as close as possible to the final production configuration. It will also make it faster and easier to scale.
  • Continuously scan and analyze golden images for new security vulnerabilities. That way, you can create and deploy patched versions as soon as possible, hopefully before a malicious actor has time to exploit those vulnerabilities.
  • Fully decommission old images once they’ve been replaced with newer, more secure versions. This will ensure a consistent and secure environment, and decrease the risk of accidentally spinning up new instances with old images.
  • Store golden images in multiple locations on a micro-segmented network. Use zero trust security to create granular policies and build  customized micro-perimeters around your golden images. This will protect your images from exfiltration or unauthorized modifications. It will also ensure access to golden images for recovery purposes even if you must isolate particular micro-segments during a breach.

Golden images for virtualized servers and network devices can be deployed, modified, and updated through IaC orchestration platforms—Like AWS, Azure, etc. This further streamlines the provisioning of immutable infrastructure, ensures consistent configurations across instances, and facilitates fast and easy scaling.

Stateful and persistent data

You should strive to make infrastructure and data as ephemeral as possible. Still, there are cases where you’ll need data to persist as you’re creating, deleting, and copying immutable resources. For stateful and persistent data, you should use mountable storage attachable to new instances when old ones are terminated.

Make sure you separate the ephemeral data from stateful/persistent data, so you only keep what you absolutely need to. This will help you reduce storage costs and simplify your overall operations. In addition, you should ship log files off immutable instances and send them to a centralized monitoring server as frequently as possible to ensure they persist.

Implementing immutable infrastructure best practices in your enterprise

Many of these immutable infrastructure best practices rely on modern, software-defined technology stacks, making it challenging to apply them to legacy infrastructure. You also need clear, centralized orchestration to see and control every piece of your immutable infrastructure, even across highly distributed networks with remote branch and edge locations. Finally, all of your immutable infrastructure solutions must work together seamlessly regardless of vendor or ecosystem.

ZPE Systems can solve all these challenges with the Nodegrid network orchestration solution. Nodegrid supports network functions virtualization (NFV), which turns your physical networking appliances into virtualized solutions you can configure and manage through IaC and SDN. Nodegrid’s vendor-neutral serial console servers also support legacy pinouts, so you can bring your legacy physical infrastructure under your immutable orchestration umbrella.

The ZPE Cloud network orchestration platform can also control remote data center, branch, and edge infrastructure. You can host your choice of SD-WAN (software-defined wide area networking) solution on your Nodegrid devices or use ZPE Cloud’s SD-WAN app. This technology allows you to extend the reach of your virtualized network orchestration to your WAN architecture. To dig even deeper, you can use the SD-Branch app to control branch and edge LANs as well.

The ZPE Cloud platform and all Nodegrid devices are truly vendor-neutral, allowing integrations with leading third-party IaC, SDN, and security providers. Nodegrid empowers you to create a tightly-integrated, seamless immutable infrastructure solution for total network control.

See how Nodegrid can help you implement immutable infrastructure best practices in your enterprise.

Call 1-844-4ZPE-SYS to view a free demo.

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Part 1: Immutable Infrastructure: Challenges Your Company Needs to Be Aware of

shutterstock_1299826528

Immutable infrastructure refers to the critical network resources and systems that make up your infrastructure and that are never updated, changed, or fixed in any way—they stay exactly the same. If something needs to be modified, the entire system or device is replaced by a new one. While this approach has many advantages for organizations, there are still some immutable infrastructure challenges you’ll need to overcome.

Mutable vs immutable infrastructure

Traditional infrastructure deployments are mutable and continuously change in place. Sysadmins and network engineers will constantly deploy patches, modify configurations, and install new software on systems and devices while they’re actively in use. The benefit of this approach is that you don’t need to create entirely new server instances or network deployments every time you want to change something.

However, mutable infrastructure does create some risk. For example, what if you deploy a patch that breaks a core function? What if some new code introduces a security vulnerability to the system? How about if an in-place upgrade fails halfway through and you end up with an unplanned version of the configuration? With mutable infrastructure, you’re stuck troubleshooting the issues and attempting to deploy fixes on systems and devices actively in use.

On the other hand, immutable infrastructure is frequently copied, deleted, and recreated without making changes to the systems currently in use. Configurations are abstracted as software code and managed from a centralized location that’s physically and logically separate from the target infrastructure. This code can be copied and deployed to many different targets as frequently as necessary. The environments themselves are virtualized (and often containerized) which creates an additional abstraction layer from the underlying hardware. This also makes it possible to copy, delete, and recreate instances as needed.

When an infrastructure as code (IaC) or software-defined networking (SDN) configuration needs to be updated, a new version of the code is written, deployed to a new instance, and tested to ensure functionality and security. Then, traffic is redirected to the new instance and the the old one is simply deleted. If a virtualized or containerized environment fails, or is compromised by a hacker, you can delete it and replace it with an exact copy with minimum hassle.

Immutable infrastructure is becoming popular among DevOps and NetDevOps organizations that use IaC and SDN to integrate resource provisioning directly into the software development pipeline. While this approach has clear advantages—including security improvement, IT complexity and failure decrement, and easier troubleshooting than mutable infrastructure—there are also some immutable infrastructure challenges.

Immutable infrastructure challenges

The immutable infrastructure paradigm was initially conceptualized for hyperscale and enterprise data center deployments. It relies on software-defined technology stacks and orchestration solutions that automate deployment and provisioning. The challenge comes when you need to venture outside of this ideal deployment, as is the case for many organizations.

Modern enterprise networks are shifting away from massive, centralized data centers because modern enterprises are themselves less centralized than they used to be. As operations become more globalized and remote, distributed workforces evolve the norm, and enterprises deploy infrastructure closer to the network edge. Edge network infrastructure is deployed to small local data centers, branch offices, remote warehouses, and other distributed locations. Often, these smaller deployments rely on hardware-based appliances, servers, and legacy equipment.

This creates some significant challenges when you try to shift to immutable infrastructure, including:

  1. Extending the software-defined network automation and orchestration to remote locations outside your enterprise network.
  2. Bringing the orchestrator’s hooks into all of your disparate legacy hardware solutions.
  3. Finding a way to apply immutable principles to this mutable hardware-based infrastructure.

Solving immutable infrastructure challenges

Immutable infrastructure requires centralized orchestration of software-defined technology, so you need to apply SDN to WAN architecture to bring immutable to the edge. This is called SD-WAN, or software-defined wide area network. SD-WAN decouples the management of your WAN from the underlying hardware, so you can use orchestration to control distributed WAN architecture.

However, SD-WAN only gets you to the perimeter of your edge networks. To use immutable infrastructure effectively, you also need to extend the orchestrator’s reach into the branch and edge LANs. You can achieve this through SD-Branch technology, which gives you software-defined control over the internal networking infrastructure of remote architectures.

The second goal is to ensure that your orchestration solution can see and control every piece of your edge architecture, even legacy systems not designed with automation in mind. The SD-WAN/SD-Branch gateways and console servers you install at the edge need to support legacy pinouts and integrate with third-party hardware and software. If the edge connectivity solution can’t say yes to every component of your distributed network infrastructure, you’ll have gaps in the software-defined orchestration coverage.

The third task is to turn mutable hardware into immutable infrastructure, which you can accomplish through virtualization. In the same way that a single physical server can be turned into many different virtual machines, you can use network functions virtualization (NFV) to turn physical networking appliances into virtualized solutions. NFV creates an abstraction layer that separates the underlying hardware’s routing, switching, load-balancing, and other management functions. This allows your orchestrator to manage these functions automatically and create, copy, delete, and recreate network configurations at will without worrying about the mutable hardware.

The tricky thing about solving each of these challenges is that you need a truly vendor-neutral solution to make it all work. For example, if you have different branch gateways in different locations, you need to ensure that the SD-WAN/SD-Branch platform will integrate with all of them. Otherwise, you’ll need to manage multiple software-defined technology stacks, or you’ll lose the ability to apply immutable principles consistently across your entire distributed network.

The network functions virtualization platform also needs to support all of your disparate vendor hardware and legacy architecture; otherwise, you won’t be able to turn all mutable infrastructure into virtualized, immutable solutions. Plus, the orchestrator needs to integrate with your NFV platform as well as all edge hardware and software, to have full coverage.

Many immutable infrastructure solutions fall short of true vendor-neutrality. That means, to use them effectively, you have to upgrade your edge infrastructure hardware and software to compatible versions. This is an expensive and time-consuming endeavor and one that creates a massive roadblock for globally distributed enterprises hoping to adopt immutable principles.

Nodegrid brings immutable infrastructure to edge networks

ZPE Systems can help you bring immutable infrastructure to your edge networks with the vendor-neutral Nodegrid platform. Nodegrid’s powerful, all-in-one branch gateways give you the best of both worlds: you can use our powerful SD-WAN and SD-Branch technology or directly host your choice of third-party software-defined networking solutions. The modular design of the Nodegrid Net Services Router (NSR) also gives you added capabilities like edge compute, terminal server, NetDevOps, and more.

The vendor-neutral ZPE Cloud orchestration platform can say yes to every component of your distributed network architecture, including legacy hardware appliances and systems. ZPE Cloud gives you complete control over your mutable hardware, making it possible to apply software-defined orchestration to even the smallest branch deployments.

Plus, all Nodegrid devices run on the vendor-neutral, Linux-based Nodegrid OS with support for NFV. You can use Nodegrid OS to virtualize every piece of the edge networking stack, turning mutable branch hardware into immutable, automated solutions.

Learn how Nodegrid can solve your immutable infrastructure problems.

Call 1-844-4ZPE-SYS to see a demo.

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Why cybersecurity can make you feel lost in space

Space Odyssey – Frank Poole

Cybersecurity has been a hot topic for years. With many high-profile breaches, malware attacks, and pricey payouts, it’s no wonder why companies continue to add more and more protection for their IT systems.

Despite this, hackers continue to succeed at exploiting vulnerabilities. Why are there still vulnerabilities in the first place? All it takes is one weak spot and one bad actor (looking at you, HAL 9000) to lock you out and leave you scrambling to regain control.

In this post, we’ll cover how network infrastructure has evolved in the past decade, why cybersecurity can make you feel lost in space, and why recovery is crucial to modern cybersecurity.

 

How network infrastructure evolved

The movie 2001: A Space Odyssey predicted that by the year 2001, technological advancements would enable things like space travel and virtual conferencing. In reality, we were still rolling around in gas-powered cars or waiting for 56kbps dial-up connections to load our email inboxes.

Times were simpler, but that also meant that network infrastructure and cybersecurity were simpler. Most people would go to work at a physical location like an HQ or branch office, and distributed or remote work technologies were very much in their infancy. This meant that network infrastructures were more simple and localized, usually requiring a simple MPLS connection from their off-site data center (if they had one) to their branch offices. Cybersecurity was simple: it was either inherent to the connection type (like MPLS), or required something like a basic firewall or encryption method.

Network architecture showing simplicity of data center connected via MPLS to branch office

Fast forward more than 20 years, and the network infrastructure common to 2001 is barely recognizable. With customers and employees demanding companies adapt to their on-the-go and remote-work lifestyles, the network infrastructure exploded, causing a sort of Big Bang of cybersecurity as we know it today.

Network architecture showing complexity of data center, CDN, remote user, branch office, all connected via many paths

Modern networks need to serve many branch offices and remote locations, and the only way to succeed is by incorporating a myriad of on-prem, cloud, and SaaS solutions. This creates a hybrid infrastructure of data, security, networking, and computing distributed everywhere. In other words, the attack surface continues to expand much like the universe itself, and security professionals have been struggling to contain all the vulnerabilities left in its wake.

 

Why cybersecurity makes you feel lost in space

You might relate to Frank Poole. In the movie, the HAL 9000 supercomputer leads Frank to perform a spacewalk in order to repair a portion of their ship. While Frank floats toward the ship, the corrupted HAL takes control of an EVA pod and slams it into Frank, causing him to tumble helplessly through the black void of space and eventually meet his demise.

Frank Poole death

Trying to secure your IT infrastructure can make you feel just as helpless and out of control. That’s because cybersecurity presents several challenges that make it difficult to gain your footing. And with 2021’s executive order regarding zero trust security, cybersecurity seems even more daunting as previous protection methodologies are becoming wholly obsolete.

Here’s a brief look at some of the challenges of modern cybersecurity.

 

Too many products

Regardless of your industry, there are so many security products to choose from that it can easily feel like you’re floating amongst an endless sky of stars. It’s difficult enough choosing properly secured servers, routers, storage devices, and other physical equipment. Add on the other crucial pieces of the modern network architecture, and it’s easy to make a full time job of researching, comparing, and selecting the right cloud and SaaS security products. Here’s a list that barely scratches the surface of different types of security products to choose from:

  • Firewalls & next-gen firewalls (NGFWs)
  • Security information and event management (SIEM) systems
  • Identify and access management (IAM) products
  • Pen testers
  • Data analytics
  • Intrusion prevention and detection systems (IDPS)
  • Endpoint protection apps
  • Database security solutions
  • Ransomware/malware detection and removal
  • Authentication and single sign-on

 

Too many vendors

All of these products have to originate from somewhere, which brings us to the next challenge: there are too many cybersecurity vendors to choose from. This isn’t necessarily a bad thing, since competition creates better products, but it does complicate the cybersecurity professional’s journey to achieving holistic protection.

At RSA Conference 2022, for example, there were 450 security exhibitors present, 70 of which were funded well enough to afford the cost of a booth. During the show, many discussed that in the previous 18 months there were 1,800 new cybersecurity vendors that received funding to be installed in networks. The TL;DR — this multi-vendor ecosystem will persist (and probably grow even more), and so will the challenge of achieving holistic security.

Of course everyone wants the best of the best, which might draw your attention to staples like Cisco, Fortinet, and Palo Alto Networks. But because the modern hybrid infrastructure is so diverse, there now exist so many niche products available from thousands of vendors. In fact, CyberDB compiled a database that includes more than 3,500 security companies from the United States alone.

Here’s a graphic that puts into perspective just a fraction of the available vendors:

so many security vendors

 

Too many gaps

The third and most important challenge stems from the first two above: there are just too many security gaps to address. Part of this problem is due to the diversity of hybrid infrastructure. But once you’re able to identify the gaps, you’ll find that addressing these will more often than not create even more gaps.

That’s because there’s no single vendor or suite of products that provides holistic cybersecurity. You deploy a variety of products but inevitably run into interoperability issues, which only perpetuates more vulnerabilities as you add more solutions to address these gaps.

What you end up with is a plethora of solutions that are secure themselves, but that don’t provide protection for your infrastructure as a whole.

 

Why recovery is key to modern cybersecurity

According to a Sophos survey, 66% of surveyed organizations suffered ransomware attacks in 2022. And when attacks happened, 70% of organizations needed more than two weeks to recover. Ransomware is the modern disaster, which makes minimizing recovery times an essential part of modern cybersecurity.

Recall the Fortinet 7.0 CVE from 2022. Customers upgrading to the then latest release of FortiOS suddenly found themselves vulnerable to an authentication bypass, where attackers could gain admin access using certain HTTP/S requests. This typical scenario leaves IT teams waiting for a solution while their business remains vulnerable. What’s needed is the ability to recover quickly and automatically, whether from an active attack or an at-risk configuration.

 

Get the blueprint for fast recovery times

Big Tech companies have spent years building this capability into their infrastructure. At ZPE Systems, we’ve directly collaborated with these companies and have created best practices based on these proven architectures. This Network Automation Blueprint details the components and practical steps to take, from automating IT/OT production infrastructure, to implementing an effective design for orchestration and automation environments.

The blueprint is your template to achieving fast recovery times and reducing your risk of attack. Download the blueprint now.

 

Watch the blueprint recover a failed upgrade

Watch this tech demo from Tech Field Day 26, where Rene Neumann shows how the blueprint helps you recover a failed device upgrade in minutes.

Nodegrid OS Version 5.4 New Features

See the new features in Nodegrid OS v5.4

Watch this video to see the new features in the latest release of Nodegrid OS, version 5.4. Sales Engineering Manager Rene Neumann shows you how to use the newest features, and gives you a look at Nodegrid OS’s added support for:

  • Nodegrid Hive SR
  • Out-of-band and gateway profiles
  • Software & security updates
  • Gen 3 out-of-band improvements
  • Networking, ZPE Cloud, & SD-WAN improvements

Watch the walkthrough now. If you have questions or would like a deeper dive, reach out to techdemo@zpesystems.com.