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

Zero Trust Security Benefits

A 3D illustration of the words Zero Trust

Network security has become more challenging for companies whose employees, devices, and applications no longer reside within one easily defended perimeter. Additionally, cyber attacks like ransomware constantly threaten networks, forcing organizations to operate under the assumption that systems are already breached.

Zero trust security is a methodology that helps companies limit the blast radius of an attack to prevent the exfiltration of sensitive and valuable data. Zero trust assumes that every user, device, and application is unsafe until proven otherwise, following the principle of “never trust, always verify.” This guide discusses how zero trust security benefits organizations by increasing network visibility, reducing the scope of cyber attacks, and providing precise security coverage.

Zero trust security benefits

The Top 3 Zero Trust Security Benefits

Improves Network Control

Zero trust visibility tools improve network control and efficiency by enabling preventative maintenance, faster incident response, and automation.

Reduces Attack Radius

Zero trust security limits the lateral movement of attackers on the network to reduce the duration of and damage caused by successful breaches.

Provides Precise Security Coverage

Zero trust uses highly specific security policies and controls, ensuring the best possible protection for each resource without any coverage gaps.

1. Improves network control

Implementing zero trust security requires knowing exactly what devices, users, applications, and services access the network, where they reside, and their potential vulnerabilities. Additionally, you must monitor all traffic on the network to identify unusual activity that could indicate compromise, and react to potential breaches. Zero trust teams deploy tools such as SIEM (security information and event management) and inventory discovery and assessment solutions to achieve this level of granular visibility.

While these tools are necessary to implement zero trust, the visibility they provide has side benefits that improve network management control and efficiency. Having insight into the health status of every network resource enables preventative maintenance and speedy responses to issues that could affect performance or availability if left unchecked. Many zero-trust solutions also use automation tools, such as automatic device/app discovery or AI threat detection, to cut back on the time your administrators spend on tedious, day-to-day management and monitoring tasks.

2. Reduces attack radius

Many traditional cybersecurity methodologies focus almost entirely on prevention, but once an attacker breaches the network, teams lack the tools to find or stop them. Zero trust security assumes a breach is already occurring. It provides the tools and techniques needed to stop it, reducing the attack radius and limiting the damage caused to your organization.

Zero trust uses network micro-segmentation and precise security policies to create perimeters around individual resources, requiring users to continuously prove their identity and “trustworthiness” as they move around the network. Each checkpoint provides another opportunity for multi-factor authentication (MFA) or security monitoring tools to catch and lock out the account.

Zero trust security reduces the duration of attacks, which limits data exfiltration, downtime, and other business impacts.

3. Provides precise security coverage

Traditional security models create one large perimeter of controls and policies that must address every potential vulnerability on the network. This approach leads to a bloated patchwork of appliances and solutions that may not cover all bases, leaving gaps in your security that could expose critical vulnerabilities.

Conversely, zero trust security creates micro-perimeters around individual resources, allowing you to implement the exact policies and controls required to protect each component. Tools like next-generation firewalls (NGFWs) enable teams to micro-segment the network, create micro-perimeters, and enforce access controls. Zero trust identity and access management (IAM) solutions also provide a centralized place to create, deploy, manage, and monitor highly specific security policies to protect individual resources.

Zero trust security shrinks your perimeter to smaller network segments, allowing teams to apply the best security policies and controls to protect each micro-perimeter. As a result, you don’t have to worry about any weak points or gaps in your network security.

How to take advantage of zero trust security benefits

Zero trust security benefits organizations by increasing their overall network visibility, reducing the scope and impact of attacks, and enabling more precise security controls and access policies.

One important thing to consider is that you must apply zero trust to both production network resources and management interfaces on the control plane. The best practice is to move management interfaces to an isolated, out-of-band (OOB) network using Nodegrid OOB devices to help create an isolated management infrastructure (IMI) that’s micro-segmented with zero trust policies and controls. A zero-trust IMI prevents attackers from jumping from production resources to the control plane for “crown jewels” infrastructure, significantly improving your security posture.

Isolated Management Infrastructure

Additionally, achieving zero trust is easier with an open, flexible, vendor-neutral platform that integrates all your tools, features, and controls into one simplified interface. For example, the Nodegrid platform from ZPE Systems serves as a single security gateway with seamless integrations with third-party services like Okta and Palo Alto Panorama. Nodegrid allows you to take advantage of zero trust security benefits with a customized solution that supports your organization’s unique goals and requirements.

Want to learn more about how to simplify zero trust security with Nodegrid?

ZPE Systems can help your company realize these zero trust security benefits with our secure out-of-band management solutions and vendor-neutral platform. Schedule a free Nodegrid demo to learn more.

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Network Resilience: What is a Resilience System?

A digital web of interconnected network resilience concepts being selected by a business person in a suit.

Network resilience means being able to withstand or recover from adversity, service degradation, and complete outages with minimal business disruption. The longer business-critical services are down, or systems are breached, the greater the risk of significant financial, reputational, and legal consequences. A resilience system is a set of technologies that enable an organization to continue operating while teams work to repair failures and recover from cyberattacks. But what exactly is a resilience system, and what does it look like? This guide to network resilience defines resilience systems, provides example use cases, compares them to related technologies like backups and redundant systems, and describes the key components required to build them.

What is a resilience system?

A resilience system provides all the infrastructure, tools, and services necessary to continue operating, if in a degraded state, during major incidents. It also includes everything needed to recover data, rebuild systems, perform security testing, and continue delivering core business functionality. A resilience system is typically isolated from the production network, preventing cybercriminals from finding and compromising it and ensuring teams have continuous access even if the primary network goes down.

Resilience system use cases

Some examples of the challenges that resilience systems help overcome include:

1. Ransomware recovery

In a ransomware attack, cybercriminals infect systems with malware that spreads throughout the network and encrypts any data it encounters. Modern ransomware now uses packaged attacks that move at machine speed, instantly incapacitating entire networks. Organizations completely lose access to critical systems and data until they pay a ransom, often in untraceable cryptocurrency. Ransomware is an exceptionally tenacious form of malware and tends to reinfect backup data and rebuilt systems, significantly hampering recovery efforts and increasing the duration and cost of the attack. The best practice for resilience systems is to isolate them on an out-of-band (OOB) network, inaccessible to hackers who have breached the production in-band network. Doing so creates a safe, isolated recovery environment (IRE) where teams can restore critical data and systems without the risk of reinfection. The resilience system includes all the tools and hardware needed to restore critical business services and infrastructure. An IRE significantly accelerates ransomware recovery and minimizes downtime, so businesses can avoid paying ransoms and reduce the overall cost of attacks.

2. Network outages

Enterprise network architectures and supply chains are highly complex, with lots of moving parts that rely on external vendors to maintain availability. Just one of those vendors dropping the ball could take the entire organization offline, severely impacting network resilience. For example, in 2023, an expired cryptographic certificate caused Cisco’s Viptela SD-WAN appliances to fail on reboot, completely taking down affected networks until the issue was resolved. With a resilience system, Viptela customers could have potentially avoided this downtime by failing over to alternative network resources. For example, a resilience system with integrated cellular failover allows branches to continue connecting to and delivering critical business services while also providing a lifeline for remote teams to access and recover failed systems. A resilience system also provides observability and automatic notifications so teams are instantly alerted to issues like certificate expirations and can respond quickly to recover critical services.

3. Shift to remote work

Incidents like ransomware attacks and equipment failures happen frequently enough that companies can create detailed plans and proactively implement solutions to minimize their impact, but not all adverse events are so predictable. When the COVID-19 pandemic struck, the massive shift to remote work strained the network resources of most organizations. Instead of maintaining a limited number of branch offices, teams suddenly had to treat every employee as a new branch, leading to performance degradation and outages as they scrambled to reinforce the business’s remote capabilities. A resilience system gives teams the tools and resources they need to provision additional infrastructure, manage networking logic, deploy new security solutions, and more, even while the primary network is offline or under a heavy load. A resilience system is the key to quickly adjusting network performance and security to adapt to sudden changes like a transition to fully remote operations.

Do backups and redundancy equate to network resilience?

The short answer is no; backups and redundancy do not equate to network resilience, though they do contribute to making systems more resilient.

  • Backups are copies of data, configurations, and application code used to do a hot or cold restore when a production system fails. The underlying infrastructure must remain operational for teams to access and use backups, and unless additional resilience measures are taken, it’s easy for backups to become infected or compromised, severely hampering recovery efforts.
  • Redundancy involves duplicating critical systems, services, and applications as a failsafe in case the primaries go down. Organizations can “fail over” to the redundancies to continue critical business operations during outages. However, redundant systems are just as susceptible to failures and infections without additional resilience measures like out-of-band management and isolated management infrastructure.

Backups and redundancy are part of network resilience but alone are not enough to ensure business continuity. Resilience systems focus on maintaining the architecture of the production network while adding the ability to recover or adapt to adversity. The next section discusses all the tools and technologies that make up network resilience systems.

What does a resilience system look like?

There are four key components that go into a resilience system.

Key Components of a Resilience System

Alternative Networking

Full-stack routing and switching, Wi-Fi, VoIP, virtualization, software-defined network overlays for SDN & SD-WAN

Alternative Compute

Full-stack compute, containers, virtual machines, and any other resources needed to run applications and deliver services

Storage & Storage Recovery

Enough storage to recover systems and applications as well as support content delivery

Automation

Tools like zero-touch provisioning (ZTP) to facilitate speedy recovery while minimizing human error

Alternative networking and compute resources ensure the organization can failover in the event of a network failure or continue delivering services when production servers are unavailable. Teams also need enough storage to restore backup data, build new systems, and support the content delivery network (CDN). Automation solutions like zero-touch provisioning (ZTP), configuration management, and security validation tools accelerate the recovery process while mitigating the risk of human error. Combined, these components enable teams to reduce the frequency, severity, and duration of outages, improving overall network resilience.

Network resilience with ZPE Systems

A resilient network will continue delivering critical business services in the face of any challenge, whether from cybercriminals, supply chain issues, global events, or even plain human error. A resilience system is isolated from the production network to ensure security and availability, and it consists of all the tools and technologies needed to troubleshoot, recover, and deliver your most crucial data, applications, and infrastructure. The Nodegrid platform from ZPE Systems is the perfect foundation for a resilience system. Nodegrid is a vendor-neutral, out-of-band management solution capable of running your choice of third-party software. Nodegrid allows you to build a highly customizable IRE containing all the tools needed to safely recover from ransomware. You can even use Nodegrid to deliver services while the primary network or systems are down, making it your all-in-one network resilience multi-tool.

Want to ensure network resilience by accelerating ransomware recovery?

Minimize the business impact of ransomware with the help of our whitepaper, 3 Steps to Ransomware Recovery. Learn how to follow Gartner’s best practices to build an Isolated Recovery Environment

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Network Resilience Doesn’t Mean What it Did 20 Years Ago

Network resilience requirements have changed

Enterprise networks are like air. When they’re running smoothly, it’s easy to take them for granted, as business users and customers are able to go about their normal activities. But when customer service reps are suddenly cut off from their ticketing system, or family movie night turns into a game of “Is it my router, or the network?”, everyone notices. This is why network resilience is critical.

But, what exactly does resilience mean today? Let’s find out by looking at some recent real-world examples, the history of network architectures, and why network resilience doesn’t mean what it did 20 years ago.

Why does network resilience matter?

There’s no shortage of real-world examples showing why network resilience matters. The takeaway is that network resilience is directly tied to business, which means that it impacts revenue, costs, and risks. Here is a brief list of resilience-related incidents that occurred in 2023 alone:

  • FAA (Federal Aviation Administration) – An overworked contractor unintentionally deleted files, which delayed flights nationwide for an entire day.
  • Southwest Airlines – A firewall configuration change caused 16,000 flight cancellations and cost the company about $1 billion.
  • MOVEit FTP exploit – Thousands of global organizations fell victim to a MOVEit vulnerability, which allowed attackers to steal personal data for millions.
  • MGM Resorts – A human exploit and lack of recovery systems let an attack persist for weeks, causing millions in losses per day.
  • Ragnar Locker attacks – Several large organizations were locked out of IT systems for days, which slowed or halted customer operations worldwide.

What does network resilience mean?

Based on the examples above, it might seem that network resilience could mean different things. It might mean having backups of golden configs that you could easily restore in case of a mistake. It might mean beefing up your security and/or replacing outdated systems. It might mean having recovery processes in place.

So, which is it?

The answer is, it’s all of these and more.

Donald Firesmith (Carnegie Mellon) defines resilience this way: “A system is resilient if it continues to carry out its mission in the face of adversity (i.e., if it provides required capabilities despite excessive stresses that can cause disruptions).”

Network resilience means having a network that continues to serve its essential functions despite adversity. Adversity can stem from human error, system outages, cyberattacks, and even natural disasters that threaten to degrade or completely halt normal network operations. Achieving network resilience requires the ability to quickly address issues ranging from device failures and misconfigurations, to full-blown ISP outages and ransomware attacks.

The problem is, this is now much more difficult than it used to be.

How did network resilience become so complicated?

Twenty years ago, IT teams managed a centralized architecture. The data center was able to serve end-users and customers with the minimal services they needed. Being “constantly connected” wasn’t a concern for most people. For the business, achieving resilience was as simple as going on-site or remoting-in via serial console to fix issues at the data center.

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

Then in the mid-2000s, the advent of the cloud changed everything. Infrastructure, data, and computing became decentralized into a distributed mix of on-prem and cloud solutions. Users could connect from anywhere, and on-demand services allowed people to be plugged in around-the-clock. Services for work, school, and entertainment could be delivered anytime, no matter where users were.

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

Behind the scenes, this explosion of architecture created three problems for achieving network resilience, which a simple serial could no longer fix:

Too Much Work

Infrastructure, data, and computing are widely distributed. Systems inevitably break and require work, but teams don’t have the staff to keep up.

Too Much Complexity

Pairing cloud and box-based stacks creates complex networks. Teams leave systems outdated, because they don’t want to break this delicate architecture.

Too Much Risk

Unpatched, outdated systems are prime targets for packaged attacks that move at machine speed. Defense requires recovery tools that teams don’t have.

Enabling businesses to be resilient in the modern age requires an approach that’s different than simply deploying a serial console for remote troubleshooting. Gen 1 and 2 serial consoles, which have dominated the market for 20 years, were designed to solve basic issues by offering limited remote access and some automation. The problem is, these still leave teams lacking the confidence to answer questions like:

  • “How can we guarantee access to fix stuff that breaks, without rolling trucks?”
  • “Can we automate change management, without fear of breaking the network?”
  • “Attacks are inevitable — How do we stop hackers from cutting off our access?”

Hyperscalers, Internet Service Providers, Big Tech, and even the military have a resilience model that they’ve proven over the last decade. Their approach involves fully isolating command and control from data and user environments. This allows them to not only gain low-level remote access to maintain and fix systems, but also to “defend the hill” and maintain control if systems are compromised or destroyed.

This approach uses something called Isolated Management Infrastructure (IMI).

Isolated Management Infrastructure is the best practice for network resilience

Isolated Management Infrastructure is the practice of creating a management network that is completely separate from the production network. Most IT teams are familiar with out-of-band management as this network; IMI, however, provides many capabilities that can’t be hosted on a traditional serial console or OOB network. And with increasing vulnerabilities, CISA issued a binding directive specifically calling for organizations to implement IMI.

Isolated Management Infrastructure using Gen 3 serial consoles, like ZPE Systems’ Nodegrid devices, provides more than simple remote access and automation. Similar to a proper out-of-band network, IMI is completely isolated from production assets. This means there are no dependencies on production devices or connections, and management interfaces are not exposed to the internet or production gear. In the event of an outage or attack, teams retain management access, and this is just the beginning of the benefits of having IMI.

A network architecture diagram showing Isolated Management Infrastructure next to production infrastructure

IMI includes more than nine functions that are required for teams to fully service their production assets. These include:

  • Low-level access to all management interfaces, including serial, Ethernet, USB, IPMI, and others, to guarantee remote access to the entire environment
  • Open, edge-native automation to ensure services can continue operating in the event of outages or change errors
  • Computing, storage, and jumpbox capabilities that can natively host the apps and tools to deploy an IRE, to ensure fast, effective recovery from attacks

Get the guide to build IMI

ZPE Systems has worked alongside Big Tech to fulfill their requirements for IMI. In doing so, we created the Network Automation blueprint as a technical guide to help any organization build their own Isolated Management Infrastructure. Download the blueprint now to get started.

Breaking Down The 2023 Ragnar Locker Cyberattacks

Breaking Down the 2023 Ragnar Locker Cyberattacks

This article was written by James Cabe, CISSP, a 30-year cybersecurity expert who’s helped major companies including Microsoft and Fortinet.

Throughout 2023, several organizations were successfully hit by Ragnar Locker cyberattacks. The affected victims spanned the globe and were forced to shut down much of their critical operations, while the attackers demanded tens of millions of dollars in ransom payments. Despite the group being taken down by law enforcement in October, organizations are re-evaluating their defensive measures — and more importantly, their recovery strategies — to combat these attacks.

If you read my previous articles about the ongoing MOVEit breach and the ransomware that hit MGM, you probably know that isolation is key. It helps you fight through attacks by cutting the kill chain, so that you can restore services quickly without reinfection.

Who Carries Out Ragnar Locker Cyberattacks?

Recent Ragnar Locker cyberattacks were carried out by the Dark Angels Team cybercriminal group. Dark Angels Team’s modus operandi is to breach a company’s defenses, spread laterally, and steal data that can be used to extort the target company. The approach they take involves gaining access to the Windows domain controller, where they deploy ransomware. They encrypt devices using Windows and ESXi encryptors, which gives organizations little recourse aside from taking their critical systems offline in order to stop the spread.

Dark Angels banner

How Do Ragnar Locker Cyberattacks Start?

Ragnar Locker breaches, like all ransomware attacks, require a kill chain that must first be initiated. MITRE ATT&CK defines this as the ‘initial,’ and in these attacks, the initial comes from social engineering. Email stuffing is often the tactic of choice, whereby the attacker sends an email that appears to have a trail of replies or forwards (see the example below). Email trails like this trick spam filters and land directly in the target’s inbox. When an employee clicks a malicious link inside the email, the attack kicks off.

An email showing an example of email stuffing.

Image: Email stuffing is used by marketers and threat actors alike to bypass spam filters.

How Do Companies Discover Ragnar Locker Cyberattacks?

After the Ragnar Locker cyberattack kicks off, the bad link uses Java to load the locker ransomware, then a series of batch scripts installs a payload consisting of virtual box emulation software. This emulation software takes over and encrypts the host, and displays the ransomware message (see image below).

A Ragnar Locker ransomware message shown in a notes file.

Image: A Ragnar Locker ransomware message showing on encrypted devices.

How Do Ragnar Locker Cyberattacks Spread?

The attack spreads by gaining access to Windows domain controllers and then attacking the management interfaces of the VMware ESXi machines. Most organizations don’t properly segment or isolate these management interfaces. This makes them especially vulnerable even to older Babuk ransomware source code that is an ESXi encryptor. Basically, the attackers only need to gain access to the management network, and then they can attack the production network.

From Intel471: “VMware’s ESXi is called a ‘bare metal’ hypervisor because the underlying hardware on which it is installed doesn’t need an operating system. ESXi allows the hardware to be utilized for multiple virtual machines (VMs), which saves on hardware costs. ESXi is a fruitful target for attackers since it may be connected to several VMs and the storage for them. Security experts warn ransomware actors have built specific binaries to target these systems. Groups joining this trend include HelloKitty, Black Basta, Cheerscrypt and GwisinLocker.”

They continue, “Over the last few years, several vulnerabilities have been identified in ESXi, including CVE-2021-21974. The vulnerability is a heap overflow vulnerability within Open Service Location Protocol (OpenSLP), which is a network discovery tool. The vulnerability is remotely exploitable over port 427, and has a Common Vulnerability Scoring System Version 3.0 (CVSSv3) base score of 8.8. It’s suspected that it may be the vulnerability exploited in this attack. VMware said that “significantly out-of-date products” were targeted with vulnerabilities that had been addressed. It affects ESXi versions 7.0 before ESXi70U1c-17325551, 6.7 before ESXi670-202102401-SG and 6.5 before ESXi650-202102101-SG. Due to other vulnerabilities in OpenSLP, VMware disabled OpenSLP starting in 2021 in ESXi versions 7.0 U2c and ESXi 8.0, which is the current version.”

Ultimately, these attacks exploit a combination of a lack of management plane isolation to the VMware management interfaces, specifically on port 427 (OpenSLP), and a lack of patching and updating. Organizations also typically lack a backup authentication mechanism for the control plane, as well as Privileged Access Management, which are both good fallback options.

How Can Companies Stop Ragnar Locker Cyberattacks?

Ragnar Locker ransomware and other attacks are successful because companies don’t employ proper management plane isolation. Attackers can gain access to VMware management interfaces, and then they essentially have the keys to the kingdom. That’s it. No amount of defense can save you.

If you recall CISA’s binding operational directive, they call for an isolated management infrastructure. This is what we refer to as IMI. Rather than serving as a defense, like we think of traditional cybersecurity products, the IMI is an architecture that allows you to fight back. It’s your quick-reaction force, your cavalry, your secret weapon that ensures you always have a counterattack ready to deploy.

IMI is infrastructure that is dedicated — and most importantly, fully isolated from production assets — to ensuring operations can recover quickly from breaches and outages. Here’s a graphical breakdown:

Isolated Management Infrastructure diagram

The IMI includes all of the tools you need for rerouting traffic, decommissioning affected gear, wiping/re-imaging devices, and restoring infrastructure. You can also incorporate automation to speed the process along and make recovery something that happens in minutes or hours at the most. Aside from being completely isolated from production assets, the IMI itself is also segmented and employs zero trust practices. This means that you and only you have access to your secret weapon for cutting the ransomware kill chain.

How Do You Use Isolated Management Infrastructure?

An IMI can host an IRE (Isolated Recovery Environment), which is used to cut off all user data and remote access (except for OOB) to an entire infected site. A properly implemented recovery environment should automate most of these activities to speed up the recovery. One of the first considerations is the requirement for a secondary organization in your IAM that is not attached to normal operations. This is what is known as a set of “Break the Glass” accounts. These are known in military circles but have made it into formal practice as part of a strong playbook for ransomware. Once you do this, you can instantiate selected Zero Trust remote access to the site using credentials that are not in the scope of the attack, and then bring up a communications channel for a virtual war room using software like Rocket Chat, Jitsi, Slack, or other standalone communications tools that are installable on the IRE environment. 

Avoiding normal authentication methods or IAM and normal communication channels is required for the integrity of the recovery and strengthens the recovery playbook. During this time, no email may be used that is associated directly with the organization. Ideally, email should never touch an account that is associated with it either.

The next step is to create a new set of clean side networks that do not directly connect to the main backbone or put it behind another firewall for triage good/bad. Using a sniffer software running on the IRE, the recovery team can then run a passive scan or an active scanner against all machines continuing to try to send email to Exchange/M365. You can give access to people that are deemed good (not sending traffic) but lock off (with an EDR) the ability to open Outlook for a while, while keeping them on the web email. From there, continue working through to find all the sending drivers to see if they have a good backup. If not, back up the infected drive for offline data retrieval for later. Then re-image while scanning the UEFI BIOS during boot (if needed, run an IPMI scan). If the site has a list of assets that are considered crown jewels, prioritize these.

Once you have a segmented “clean side” established with all the network services required to operate the site (DNS, IAM, DHCP), then Internet access can be restored to this site on a limited basis; which means only out-bound communications, nothing in-bound. Restorative operations can continue apace. making sure that the infected side assets are captured in backup for later forensics following chain-of-custody if damages exceeding insurance limits are found to be the case. This is decided in the war room.

Download the Isolated Management Infrastructure Blueprint

Now is the time to lay the groundwork for your IMI so you can fight back against ransomware. Download the Network Automation Blueprint, which gives you a step-by-step guide to building your Isolated Management Infrastructure.

Get in touch with me!

True security can only be achieved through resilience, and that’s my mission. If you want help shoring up your defenses, building an IMI, and implementing a Resilience System, get in touch with me. Here are links to my social media accounts:

Dissecting the MGM Cyberattack: Lions, Tigers, & Bears, Oh My!

Dissecting the MGM Cyberattack

This article was written by James Cabe, CISSP, whose cybersecurity expertise has helped major companies including Microsoft and Fortinet.

The recent MGM cyberattack reportedly caused the company to lose millions in revenue per day. The successful kill chain attack — originally a military tactic used to accomplish a particular objective — granted inside access to the attackers, who encrypted and held for ransom some of MGM’s most prized assets. These ‘crown jewel’ assets, as they’re called in the cybersecurity realm, are most critical to the accomplishment of an organization’s mission. Because ransomware attacks persist in corporate networks until fully cleared, organizations must be ready to “fight through” an attack using resilient systems and effective procedures. This should involve identifying these crown jewels and designing them in a way that ensures they can operate through attacks.

When these types of large-profile attacks occur, many cast their eyes at cybersecurity leaders for failing to fend off the bad guys. The reality is these leaders struggle to get budget, corporate buy-in, and digital assets that are required to build a strong defense for business continuity. For MGM, it’s likely they also faced difficulty operationalizing current assets across a gigantic digital estate, and ultimately lacked a plan to recover from a total outage of crown jewel assets.

From the attacker’s perspective, an exceptional level of intelligence and preparation are required in order to understand a target’s internal operations and architecture and execute a successful kill chain. Successfully attacking a sophisticated organization like MGM requires rapid information stealing to capture and leverage cloud credentials, as well as to lock up those resources and lock out the most important support staff in an organization. This is the crux of the issue: infostealers and ransomware automate the mass grabbing of resources and quickly set up a denial of services for the stakeholders that are responsible for fixing these systems.

How did the MGM cyberattack start? After MGM discovered the breach, how did the attacker stay one step ahead? What approach should organizations take to ensure they can recover if they’re targeted?

Who Started The MGM Cyberattack, and How?

The MGM cyberattack began after an adversary group named “Scattered Spider” used phishing over the phone, an approach called ‘vishing,’ to convince MGM’s customer support rep into granting them access with elevated privileges. Scattered Spider is the same group responsible for the SIM-swapping campaign that happened a few months ago, where they successfully subverted multifactor authentication. Their primary tactic involves social engineering, which they use to steal personal information from employees.  

MGM and many other casinos currently use advanced Zero Trust identity security from Okta. However, the attacker was able to trick the service desk into resetting a password to gain access into the network. Even with newer Zero Trust identity solutions, most organizations unravel once attackers get to the real chewy center” of the network: the humans operating them

Spider Bug Insect graphic

Okta is quoted saying, “In recent weeks, multiple US-based Okta customers have reported a consistent pattern of social engineering attacks against their IT service desk personnel, in which the caller’s strategy was to convince service desk personnel to reset all multi-factor authentication (MFA) factors enrolled by highly privileged users.” Okta further warned, “The attackers then leveraged their compromise of highly privileged Okta Super Administrator accounts to abuse legitimate identity federation features that enabled them to impersonate users within the compromised organization.” 

The MGM cyberattack and those like it are more about processes than technology. Let’s explore how the attack progressed, and how the criminals were successful at staying persistent and ultimately hitting their goal. 

How Did A Simple Authentication Attack Morph Into a Complex Attack?

The Scattered Spider threat actors use a platform written by UNC3944 or AlphaV (known by several names). This is a middleware developer for attack platforms that allow criminals to follow a specific set of instructions (a kill chain) to gain access and ultimately encrypt and exfiltrate data from a targeted company. AlphaV’s platform is called BlackCat, which they use to establish a foothold, establish Command and Control (C2) for the malware, and exfiltrate data, to ultimately get paid.

With elevated Okta privileges at MGM, Scattered Spider deployed a file containing a Java-based remote access trojan, which became a “vending machine” for other remote access trojans (RATs) that sought out other nearby machines to spread quickly. The AlphaV RAT would ‘pwn‘ MGM’s Azure virtual servers to gain access, then sniff for more user passwords and create dummy accounts.  

These RATs leveraged a built-in tool called “POORTRY,” the Microsoft Serial Console driver turned malicious, to terminate selected processes on Windows systems (e.g., Endpoint Detection and Response (EDR) agents on endpoints). AlphaV, the platform maintainer, signed the POORTRY driver with a Microsoft Windows Hardware Compatibility Authenticode signature. This helped the malware to evade most Endpoint Detection software. 

This tool was used to get elevated and persistent access to the Okta Proxy servers that were in the scope of the attack and accessible remotely by the attacker. This attack can evade a lot of detection tools. This access allowed them to capture AM\IAM accounts that allowed them greater access to the organization. This stealing of credentials from the Okta Proxy servers was confirmed by Okta responders as well as the threat actor on their blog. This is called a “living off the land” attack. 

Alphv statement on MGM

How Did MGM Discover the Cyberattack?

The first notification of the hack was dropped on the VXUnderground forums. The staff there verified through chat contact with the threat group UNC3944\AlphaV, who works in conjunction with the Scattered Spider threat actor, The attacker also confirmed this on their blog on the darknets.

On September 11, 2023, anyone attempting to visit MGM’s website was greeted by a message stating that the website was currently unavailable. The attack also stopped hotel card readers, gaming machines, and other equipment critical to MGM’s day-to-day operations and revenue generating activities. 

Screenshot showing MGM casino's website down.

How Did the Attacker Maintain Control?

The initial attack allowed AlphaV, who runs the C2 (Command and Control) networks for the RattyRat trojan, to have remote access to the VMware server farm that services the guest systems, the gaming control platforms, and possibly the payment processing systems. They maintained control despite all of MGM’s attempts to mitigate the problem, because they were able to establish elevated access in places the organization could not easily remove them from without removing access to the whole organization. They established something called “persistence.”

From the attacker’s blog on the darknet, “MGM made the hasty decision to shut down every one of their Okta Sync servers after learning that we had been lurking on their Okta Agent servers sniffing passwords of people whose passwords couldn’t be cracked from their domain controller hash dumps. At this point MGM being completely locked out of their local environment. Meanwhile the attacker continued having super administrator privileges to their Okta, along with Global Administrator privileges to their Azure tenant. They made an attempt to evict us after discovering that we had access to their Okta environment, but things did not go according to plan. On Sunday night, MGM implemented conditional restrictions that barred all access to their Okta (MGMResorts.okta.com) environment due to inadequate administrative capabilities and weak incident response playbooks. Their network has been infiltrated since Friday. Due to their network engineers’ lack of understanding of how the network functions, network access was problematic on Saturday. They then made the decision to ‘take offline’ seemingly important components of their infrastructure on Sunday. After waiting a day, we successfully launched ransomware attacks against more than 100 ESXi hypervisors in their environment on September 11th after trying to get in touch but failing.“

MGM tried many things to remove access into their network. However, because of an advanced attack that installed a shadow identity provider in their own Identity Solution, they were able to maintain access long enough to redeploy access to most of the assets they found to be the backbone of the company. AlphaV was then able to encrypt most of the crown jewels of MGM’s operations network.

Is There a Way to Stop These Types of Attacks? 

The MGM cyberattack required physical reconnaissance, patience, and a lot of planning to set up the kill chain. Playbooks that can protect against this kind of attack are hard to create, because it can mean taking all guest services offline for a period, which requires very high authority in the organization. One of the comments from the attacker was that the organization did not act fast enough to take all remote access offline to their management framework that consisted of Okta Proxy Servers. When they did, the adversary was then able to lock them out by submitting a Multifactor Authentication Reset. To stall the attacker, they would have had to induce a full outage of their crown jewels while a formal assessment of all assets could be performed. Taking assets offline requires buy-in at the board level and executive level, which are difficult to come by even if an organization emphasizes its operational excellence, detection, and defense.

Organizations should have a plan to quickly recover from a total loss of a site, outside of backups (which can be lost) and disaster recovery sites. Organizations need to be properly hard-segmented into a full IMI (Isolated Management Infrastructure). Keeping crown jewels safe from an attacker that targets the chewiest part of an organization should be top of any list going from 2023 budget to 2024 planning.

The following is a light version of what can be done in a fully-automated response that can take mere hours instead of days for an outage (a full operations blueprint will be out in the near future).

Isolated Management Infrastructure diagram

An IMI can host an IRE (Isolated Recovery Environment), which is used to cut off all user data and remote access (except for OOB) to an entire infected site. A properly implemented recovery environment should automate most of these activities to speed up the recovery. One of the first considerations is the requirement for a secondary organization in your IAM that is not attached to normal operations. This is what is known as a set of “Break the Glass” accounts. These are known in military circles but have made it into formal practice as part of a strong playbook for ransomware. Once you do this, you can instantiate selected Zero Trust remote access to the site using credentials that are not in the scope of the attack, and then bring up a communications channel for a virtual war room using software like Rocket Chat, Jitsi, Slack, or other standalone communications tools that are installable on the IRE environment. 

Avoiding normal authentication methods or IAM and normal communication channels is required for the integrity of the recovery and strengthens the recovery playbook. During this time, no email may be used that is associated directly with the organization. Ideally, email should never touch an account that is associated with it either.

The next step is to create a new set of clean side networks that do not directly connect to the main backbone or put it behind another firewall for triage good/bad. Using a sniffer software running on the IRE, the recovery team can then run a passive scan or an active scanner against all machines continuing to try to send email to exchange\M365. You can give access to people that are deemed good (not sending traffic) but lock off (with an EDR) the ability to open Outlook for a while, while keeping them on the web email. From there, continue working through to find all the sending drivers to see if they have a good backup. If not, back up the infected drive for offline data retrieval for later. Then reimage while scanning the UEFI BIOS during boot (if needed, run an IPMI scan). If the site has a list of assets that are considered crown jewels, prioritize these.

Once you have a segmented “clean side” established with all the network services required to operate the site (DNS, IAM, DHCP), then Internet access can be restored to this site on a limited basis; which means only out-bound communications, nothing in-bound. Restorative operations can continue apace. making sure that the infected side assets are captured in backup for later forensics following chain-of-custody if damages exceeding insurance limits are found to be the case. This is decided in the war room.

Get the Blueprint for Isolated Management Infrastructure

Maintaining control of critical systems is something security practitioners deal with in the Operational Technology (Industrial Control Systems) side of an organization. For them, the critical and most impactful part of the problem is the loss of control rather than the loss of data, a problem highlighted by the MGM cyberattack. Operational Technology Safety and Security teams set up and maintain Safety Systems as a fallback measure in case of any kind of disaster. This automation allows fallback of services safely, from which point they can recover operations. In 2023, most of our business is done on computers and networks. It is how to plan for business continuity. Now is the time that IT started following this safety system blueprint as well. 

Download the Network Automation Blueprint now, which helps you lay the groundwork for your IMI so you can recover from any attack.

Get in touch with me!

True security can only be achieved through resilience, and that’s my mission. If you want help shoring up your defenses, building an IMI, and implementing a Resilience System, get in touch with me. Here are links to my social media accounts:

Intel NUC Use Cases

A mini-PC similar to an Intel NUC.

The Intel NUC, or “Next Unit of Computing,” is a small, appliance-like minicomputer that’s widely used across a variety of industries and applications. They’re tiny and relatively inexpensive, so you’ll often find them inside IoT devices and ruggedized cases. They’re also frequently deployed as jump boxes or service delivery appliances. However, Intel NUCs create added security risks, technical debt, and management headaches. Plus, Intel recently announced the discontinuation of all NUC product lines. This post describes some of the most common Intel NUC use cases, explains the security and management issues that caused its discontinuation, and provides superior replacement options.

Table of Contents

  1. Intel NUC use cases
  2. Intel NUC EOL products
  3. Why is Intel EOL-ing the NUC?
  4. Intel NUC replacement options from ZPE Systems
  5. Nodegrid product comparison
  6. Intel NUC replacement SKUs

Intel NUC use cases

While Intel NUCs have a dedicated fanbase among home enthusiasts, they’re primarily used by professional IT teams. Some popular Intel NUC use cases include:

  • Reducing carbon footprints: As investors place more importance on an organization’s environmental, social, and governance (ESG) practices, it becomes necessary to improve sustainability and reduce greenhouse gas emissions. Replacing inefficient PC towers with Intel NUCs can help reduce carbon footprints and improve ESG ratings.
  • Security and surveillance systems: An Intel NUC can run a wide range of security applications for things like entry control and surveillance cameras, eliminating the need for dedicated servers. Some IoT (Internet of Things) security devices have embedded Intel NUCs for greater mobility and efficiency.
  • Application delivery: Some service providers use Intel NUCs as platforms to deploy their software on-site to reduce hardware overhead costs. For example, a provider can install a NUC in their customer’s server room to deliver artificial intelligence (AI) or Software-as-a-Service (SaaS) applications.
  • Jump boxes: Managed Service Providers (MSPs) and Managed Security Service Providers (MSSPs) often deploy Intel NUCs at customer sites to act as “jump boxes” used to remotely access client infrastructure without taking up rack space.
  • Rugged computing: When services are needed out in the field, such as in military or construction applications, a traditional laptop may not be heavy-duty enough to withstand operating conditions. Some organizations solve this problem by running their services on Intel NUCs installed inside rugged cases designed for the environment.
  • Customized appliance computing: For specialized applications requiring a high degree of physical customization, such as law enforcement surveillance systems, an Intel NUC is often used because it’s small enough to fit nearly any case.

Intel NUC EOL products

Intel recently announced it’s discontinuing all NUC products, with specific dates for end-of-sale, end-of-support, and end-of-security-support varying by product. ASUS agreed to take over manufacturing and support of NUC product lines, but it’s unclear what the transition will look like or how ASUS will develop the NUC in the future.

Click here to view a list of all Intel NUC end-of-life SKUs as well as direct replacement options.

Why is Intel EOL-ing the NUC?

Despite all the exciting enterprise use cases listed above, the Intel NUC was never intended to be used as an appliance. It has numerous security and management limitations that make it challenging for Intel (and ASUS, in the future) to support the NUC for enterprise applications, including:

  • There’s no dedicated platform to deploy or secure NUC applications
  • Each Intel NUC is managed and accessed individually with no centralized management
  • Intel NUCs create a lot of technical debt because they require a lot of coding, API knowledge, and other specialized skills to work with
  • NUC operating systems are usually left out of patch schedules, leaving vulnerabilities critically exposed
  • There is usually no ability to recover a non-responsive NUC remotely, requiring expensive on-site visits any time there’s a network hiccup or OS crash
  • NUCs often don’t have the onboard hardware Roots of Trust (e.g., TPM) needed to secure them properly
  • The hardware NUCs are embedded in often have unclear or undocumented supply chains
  • There’s no ability for bidirectional authentication to the cloud with unique certificates
  • The production data and applications are on the same plane as management processes, leaving management ports exposed

Intel NUCs are a quick and inexpensive way to deploy applications, jump boxes, and digital services, which is what makes them so popular in enterprises. However, due to a lack of security features and centralized management, NUCs are also popular with cybercriminals looking for an easy target to exploit. With Intel discontinuing all NUC product lines, it’s the perfect opportunity to look for a replacement option that delivers the same cost-efficient flexibility but with enterprise-grade security and management features built in.

Intel NUC replacement options from ZPE Systems

Nodegrid is a family of all-in-one networking, application delivery, and infrastructure management devices from ZPE Systems. Nodegrid was built with security in mind, taking a three-pronged approach that includes:

  1. Hardware security – Onboard security features like TPM 2.0 and self-encrypted disk (SED) protect your device even if it falls into the wrong hands.
  2. Software security – Nodegrid protects its software using features such as BIOS protection and Signed OS, and it can host third-party security applications for an even stronger defense.
  3. Management security – Nodegrid keeps the management plane isolated from the data plane and uses strong zero-trust authentication methods to protect your management interfaces.

Nodegrid reduces management headaches without reducing security or functionality. ZPE provides enterprise-level support for all Nodegrid products with a responsive engineering team and 24-hour CVE (common vulnerabilities and exposures) patching. Nodegrid also lowers the technical debt and can meet teams at their skill level. You can deploy Nodegrid and use it to manage solutions that are already in place without any specialized programming or API knowledge.

Plus, Nodegrid uses out-of-band (OOB) management and serial connectivity to ensure continuous remote access to the control plane, making it a superior choice to an Intel NUC jump box for MSPs and MSSPs. With OOB connection options like 5G/4G LTE, teams can remotely troubleshoot and recover systems, services, and applications, even during major network outages. Management of all Nodegrid-connected infrastructure is unified by a single platform for streamlined control at any scale.

Due to its size, cost, and open, Linux-based operating system, Nodegrid is just as flexible and efficient as an Intel NUC while delivering the centralized management, robust security, and responsive support needed in enterprise deployments.

Learn more about replacing mini-computers with enterprise solutions:

Nodegrid product comparison

The entire family of Nodegrid edge solutions provides reliable OOB management and flexible service delivery capabilities protected by enterprise-grade security features. The Nodegrid Mini SR, Bold SR, and Gate SR are direct replacements for EOL Intel NUC models but offer so much more. Nodegrid is an entire Services Delivery Platform designed to streamline operations at any scale.

 

Mini SR

Bold SR

Hive SR

Gate SR

CPU

X86-64bit Intel 

X86-64bit Intel

 

X86-64bit Intel 

Cores

4

4 or 8

4 or 8

2, 4 or 8

Guest VM

1

1

1-3

1-3

Guest Docker

2+

2+

2+

2+

Storage

14GB SED

32GB – 128GB

32GB – 128GB

32GB – 128GB

Additional Storage

Up to 4TB

512GB

Up to 4TB

Wi-Fi

Yes

Yes

Yes

Yes

Cellular modem

1

1-2

1-2

1-2

5G

Yes

Dual 5G

Dual 5G

Sim slots

1

4

4

4

Serial Console Switch

Via USB

8

Via USB

8

Network

2x 1Gb ETH

5x Gb ETH

2x WAN (ETH/SFP)
2x SFP

4x 2.5Gb ETH

2x SFP
5x Gb ETH

4x 1Gb ETH PoE+

Data Sheet

Download

Download

Download

Download

To see first-hand why Nodegrid edge solutions are a superior choice for Intel NUC use cases, request a demo from ZPE Systems today.

Schedule a Demo

Intel NUC replacement SKUs

Intel NUC EOL SKU

In scope features

ZPE replacement product

Intel® NUC 11 Performance Kit NUC11PAHI70900

(Lenovo)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 11 Pro Kit NUC11TNKv5

Intel® NUC 11 Pro Board NUC11TNBv5

Intel® NUC 11 Pro Board NUC11TNBv7

Intel® NUC 11 Pro Kit NUC11TNHv50L

Intel® NUC 11 Pro Kit NUC11TNKv7

Intel® NUC 11 Pro Kit NUC11TNHv7

Intel® NUC 11 Pro Kit NUC11TNHv70L

Intel® NUC 11 Pro Board NUC11TNBi3

Intel® NUC 11 Pro Board NUC11TNBi5

Intel® NUC 11 Pro Board NUC11TNBi7

Intel® NUC 11 Pro Kit NUC11TNKi3

Intel® NUC 11 Pro Kit NUC11TNKi5

Intel® NUC 11 Pro Kit NUC11TNKi7

Intel® NUC 11 Pro Kit NUC11TNHi30L

Intel® NUC 11 Pro Kit NUC11TNHi50L

Intel® NUC 11 Pro Kit NUC11TNHi70L

Intel® NUC 11 Pro Kit NUC11TNHi3

Intel® NUC 11 Pro Kit NUC11TNHi5

Intel® NUC 11 Pro Kit NUC11TNHi7

Intel® NUC 11 Pro Kit NUC11TNHi30P

Intel® NUC 11 Pro Kit NUC11TNHi50W

Intel® NUC 11 Pro Kit NUC11TNHi70Q

Intel® NUC 11 Pro Board NUC11TNBi30Z

Intel® NUC 11 Pro Board NUC11TNBi50Z

Intel® NUC 11 Pro Board NUC11TNBi70Z

Intel® NUC 11 Pro Kit NUC11TNKi30Z

Intel® NUC 11 Pro Kit NUC11TNKi50Z

Intel® NUC 11 Pro Kit NUC11TNKi70Z

Intel® NUC 11 Pro Kit NUC11TNKv50Z

Intel® NUC Kit, NUC11PAHi30Z

Intel® NUC Kit, NUC11PAHi50Z

Intel® NUC Kit, NUC11PAHi70Z

Intel® NUC 11 Enterprise Edge Compute NUC11TNHv50L

Intel® NUC 11 Enterprise Edge Compute NUC11TNHv70L

Intel® NUC 11 Pro Kit NUC11TNHi50Z

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC Kit, NUC10i5FNHN

     (no cord, US cord, EU cord, AU cord, IN cord)

Intel® NUC Kit, NUC10i5FNKN

     (no cord, US cord, EU cord, AU cord, IN cord)

Intel® NUC Kit, NUC10i3FNHN

     (no cord, US cord, EU cord, AU cord, IN cord)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC11 Enthusiast Kit, NUC11PHKi7C, with Core™ i7, RTX 2060

     (no cord, US cord, EU cord, UK cord, AU cord, CN cord)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC Kit, NUC10i5FNHN

Intel® NUC Kit, NUC10i3FNHN

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC Board NUC7PJYBN

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 11 Enthusiast Mini PC, w/ Core™

i7, RTX 2060, Optane™ Mem H10 

(32GB+512GB) Solid State Storage, 16G 

RAM, Windows® 10

     (No cord, US Cord, EU Cord, CN cord)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 8 Rugged Kit NUC8CCHKRN (All SKUs)

Intel® NUC 8 Rugged Board NUC8CCHBN (All SKUs)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC Kit – NUC10i7FNHN

Intel® NUC Kit – NUC10i7FNKN

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC Kit – NUC7CJYHN (All SKUs)

Intel® NUC Kit – NUC7PJYHN (All SKUs)

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 9 Pro Kit – NUC9VXQNX

Intel® NUC 9 Pro Compute Element – NUC9VXQNB

Intel® NUC 9 Pro Compute Element – NUC9V7QNB

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 12 Pro Kit NUC12WSKi50Z

Intel® NUC 12 Pro Kit NUC12WSHi50Z

Intel® NUC 12 Pro Kit NUC12WSKi70Z

Intel® NUC 12 Pro Kit NUC12WSHi70Z

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Intel® NUC 9 Extreme Kit – NUC9i5QNX

Intel® NUC 9 Extreme Kit – NUC9i7QNX

Intel® NUC 9 Extreme Kit – NUC9i9QNX

Multi-core Intel processor, expandable memory & SSD storage, Wi-Fi

ZPE-MSR24-W5

ZPE-MSR24-4G-W5

ZPE-MSR24-W5-EXT

ZPE-MSR24-4G-W5-EXT

ZPE-BSR-24a-W5

ZPE-BSR-24-4G-W5

ZPE-BSR-24-4G-W5-D128G

ZPE-BSR-48-W5

ZPE-BSR-48-4G-W5

ZPE-BSR-48-4G-W5-D128G

ZPE-GSR-48-W5

ZPE-GSR-48-4G-W5

ZPE-GSR-48-4G-W5-D128G

ZPE-GSR-816-W5

ZPE-GSR-816-4G-W5

ZPE-GSR-816-4G-W5-D128G

Want to learn more about replacing your Intel NUC with Nodegrid?

Ready to replace your Intel NUC with a Nodegrid alternative? Call ZPE Systems today at 1-844-4ZPE-SYS or contact us online.

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