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

The Importance of Remote Site Monitoring for Network Resilience

remote site monitoring

Enterprise networks are huge and complex, with infrastructure hosted in many different facilities across a wide geographic area. Though most network infrastructure isn’t housed in the same location as the core business, it’s still vital to the business’s continual operation. Remote site monitoring gives network admins a virtual presence in remote sites like data centers, manufacturing facilities, electrical substations, water treatment plants, and oil pipelines.

Most organizations already have some form of remote infrastructure monitoring, but traditional solutions come with major limitations that make it difficult for networking teams to maintain 24/7 uptime. In this blog, we’ll discuss the importance of remote site monitoring, analyze the limitations of traditional solutions, and explain how the ideal remote monitoring platform improves network resilience.

The importance of remote site monitoring

Many organizations have reduced their IT staff due to the economic recession, leaving networking and infrastructure teams stretched too thin. When there aren’t enough eyes on remote infrastructure, enterprise networks are more vulnerable to breaches, hardware failures, and other major causes of network outages. With the average cost of downtime rising above $100k in 2022, and cyberattacks causing major disruptions to oil pipelines in recent years, this is a problem that’s too expensive to ignore.

The limitations of traditional remote site monitoring solutions

Many organizations rely on remote site monitoring solutions that are fragmented and vendor-specific. Admins have to log in to one platform to view monitoring data for a remote site’s wireless access points, for example, and a different platform to monitor IoT devices in the warehouse. These complex and repetitive tasks can lead to fatigue and negligence, especially for overworked and understaffed networking teams. At an even higher level, this makes it difficult to see the relationships between different systems and solutions or get a complete picture of the overall health of the enterprise network.

Another limitation of traditional solutions is that they’re often affected by the same issues as the infrastructure they’re monitoring. For example, if the LAN goes down in a remote office and the on-premises security appliance can’t get an IP address, then admins won’t be able to remotely access that appliance to view the monitoring logs. This can significantly delay or even prevent remote diagnostic and recovery efforts, leading to expensive truck rolls.

The problem gets even worse if the remote site is inaccessible due to natural disasters, conflicts, or other external factors. Network teams need a way to get eyes on the problem, diagnose the root cause, and deploy fixes without physically seeing or touching the affected infrastructure.

The ideal remote site monitoring solution

To avoid these limitations and ensure network resilience, the ideal remote site monitoring solution should consider the following factors:

Vendor-neutral and centralized

A vendor-neutral monitoring platform can collect and analyze logs from every component of your infrastructure. This gives admins complete coverage, so nothing falls between the cracks.

Another benefit of vendor neutrality is that it enables unified, centralized monitoring. That means networking teams only need to log in to a single portal to observe the entire distributed enterprise architecture.

Out-of-band

Deploying remote site monitoring on an out-of-band (OOB) network means that it won’t rely on production LAN, WAN, or ISP infrastructure. This ensures that admins always have access to vital monitoring data even during an outage, making it easier to remotely diagnose the issue.

Plus, using an OOB management solution for monitoring improves network resilience even further by giving admins a direct connection to remote infrastructure that doesn’t require an IP address. That means they can still access and fix remote devices during an outage.

Automated

Automated monitoring solutions help to ensure that admins are quickly notified of potential issues and that possible remediation steps are taken even if nobody is available right away. Some solutions can, for example, automatically refresh DHCP on a device that lost its IP address or re-direct traffic to a secondary resource when the primary server stops responding.

Automated monitoring solutions help to reduce the workload on understaffed networking teams without sacrificing resilience.

Building network resilience with ZPE Systems

A centralized, vendor-neutral remote site monitoring solution with out-of-band management and automation support helps to ensure network resilience even when IT staff is reduced or remote sites become inaccessible. The Network Automation Blueprint from ZPE Systems provides a reference architecture for achieving network resilience with OOB, automation, monitoring, and more.

Ready to learn more?

To learn more about remote site monitoring and network resilience, contact ZPE Systems today.

Contact Us

White Box Networking: Making the Switch

A close up of fingers plugging an Ethernet cable into a white box networking switch
Vendor lock-in is risky to corporate revenue and security. Enterprise technology ends up on rails, so to speak. Organizations lose the ability to choose the best features, pricing, and functionality for their use cases and instead must go along with their vendor’s roadmap. This is leading executives to take a hard look at their existing networking tech stacks so they can break out of their closed ecosystems. White box networking solutions, which are designed around completely open and customizable hardware components, offer an escape from vendor lock-in. In this blog, we’ll discuss how white box networking works, what the benefits and challenges are, and how to build the best solution.

Table of Contents

  1. White box networking explained
  2. The benefits of white box networking
  3. The problem with white box networking
  4. The solution: White box networking with ZPE Systems

To see an example of white box networking in action, request a

free Nodegrid demo

White box networking explained

White box networking involves the use of hardware – like switches and routers – that are built with commodity parts and can run any software. These solutions are highly customizable, enabling organizations to mix and match parts from different suppliers to get exactly the features they need, like port configurations, storage capacity, and computational power. In addition, white box devices can run operating systems and software that’s been custom-made or heavily modified, allowing even greater flexibility.

The benefits of white box networking
.

→ Cost savings: Network Operating Systems (NOS) are often the most expensive component of a networking solution, involving recurring licensing fees, support contracts, and periodic update costs. Plus, the vendor may decide to overhaul or replace their software platform, requiring expensive network hardware replacements and licensing upsells to maintain support. White box networking decouples the hardware and software, giving organizations complete control over their NOS and allowing the use of open source or in-house operating systems. By eliminating their reliance on commercial NOS, companies can reduce both their upfront software costs and their recurring licensing fees.

→ Hardware and software freedom: Even if an off-the-shelf networking solution comes with the necessary features and functionality right now, that’s no guarantee that the feature roadmap will always align with an enterprise’s goals and future growth. A white box solution can be changed at any time by installing new software or replacing hardware components, so it can grow and evolve with an organization. This also means that companies can take advantage of new and emerging technologies like SD-WAN or AIOps as quickly as they want without needing to completely replace the underlying infrastructure – they can simply add the required hardware and software to their existing white box solutions.

→ Easy management and interoperability: The biggest benefit of white box networking is that it can be managed by any platform and integrated with any third-party solutions. This makes it easier for an organization to create a fully unified environment with centralized orchestration, end-to-end network automation, and complete visibility. Network teams get holistic control over the entire white box infrastructure from a single pane of glass, using their preferred automation scripts and orchestration tools, which ensures greater performance, reliability, and efficiency.
.

The problem with white box networking

Though white box networking has many advantages in theory, a lot of companies find it hard to achieve these benefits in practice. For one thing, many white box vendors focus simply on the hardware and don’t provide a default NOS. That means organizations need to spend additional time purchasing, customizing, or writing their own NOS as well as deploying that NOS to all new white box devices.

In addition, white box hardware is often sold in bulk and can become prohibitively expensive if bought in smaller quantities. An organization might end up buying a lot of extra parts they don’t need just to avoid outrageous shipping fees, and then they’re left with the hassle of storing or reselling that hardware.

White box networking also requires a lot of extra work to configure, deploy, and manage compared to a commercial off-the-shelf (COTS) solution. For many companies, the complexity of enterprise networks and the tech talent shortage make white box networking too much of a headache. Plus, white box manufacturers typically don’t provide ongoing support in the form of NOS updates and security patches, which means the enterprise must take on this responsibility themselves.

Plus, white box devices can also increase the security attack surface of the enterprise network. A poorly configured and unpatched NOS is a tempting target for cybercriminals, who can use a compromised white box device to access sensitive network resources.

The solution: White box networking with ZPE Systems

To use white box networking effectively while avoiding these challenges, you need a complete solution, not just disparate parts to assemble on your own. That solution should combine the open ecosystem approach of white box hardware, the centralized management and security patch advantages of point solutions, and pre-validated applications that don’t require a professional coder to deploy.

For example, the Nodegrid platform from ZPE Systems turns white box networking into a complete enterprise solution. Nodegrid devices are highly customizable, inexpensive, and arrive fully assembled. These devices come pre-installed with the Nodegrid OS, which is built on an x86-64 bit Linux kernel to ensure easy setup and interoperability. ZPE Systems can even manage Nodegrid OS updates and security patches for you, helping to reduce your attack surface and close the tech talent gap. Plus, you can directly host or integrate your choice of networking applications (including Docker containers and SASE solutions) for greater functionality, security, and ease of use.

The Nodegrid solution addresses every major challenge of white box networking so you get complete vendor freedom and simplified management in a single, affordable platform.

Ready to learn more?

To learn more about white box networking with Nodegrid,contact ZPE Systems today. Contact Us

Why You Need an Out-of-Band Cybersecurity Platform

out of band cyber security
As enterprise networks continue to grow in size and complexity, many organizations struggle to defend their expanding attack surface. The cost of failure also continues to grow – according to IBM’s 2022 Cost of a Data Breach report, the average cost of a successful ransomware attack reached $4.54 million. Koroush Saraf, VP of Product Management at ZPE Systems, identified the top five cybersecurity gaps that must be closed to achieve holistic cybersecurity, which include:

  • Unnecessary exposure of management ports
  • Credential theft
  • Unpatched infrastructure
  • Inability to deploy the right security tools
  • Human error

Closing these gaps requires a three-pronged approach – out-of-band infrastructure, an open platform from which to deploy and manage security tools, and end-to-end automation (aka, hyperautomation). In this blog, we’ll explain how an out-of-band cybersecurity platform combines these three key features into a single, holistic network security solution. Want to see an out-of-band cybersecurity platform in action? Request a free demo of the Nodegrid solution.

Why you need an out-of-band cybersecurity platform

An out-of-band (OOB) cybersecurity platform provides a single, unified interface from which to:

  • View and manage network infrastructure
  • Deploy and control all of the various security policies and applications needed to protect that infrastructure, and
  • Orchestrate network, infrastructure, and security automation.

This platform resides and operates on an out-of-band network running parallel to the production network, which ensures 24/7 availability even if there’s a LAN failure or ISP outage. All network, infrastructure, and security management occur OOB, which prevents resource-intensive orchestration workflows from negatively impacting performance. This vendor-neutral, automation-friendly, out-of-band approach to cybersecurity helps you in several areas.

Reduce your attack surface

The management ports on devices like servers and switches are frequently targeted by cybercriminals because they can be used to gain access to valuable data and resources on the production network. With an out-of-band cybersecurity platform, all infrastructure and network management occurs on the OOB network, which means you no longer need to expose management ports on the production network. Isolating management and orchestration workflows to the OOB network helps reduce the attack surface by making it much more difficult for attackers to find and access those open management ports. Vendor-neutral OOB cybersecurity platforms can also help companies reduce the number of individual devices and solutions on their network, which decreases the attack surface even more. An open OOB serial console like the Nodegrid Serial Console Plus (NSCP) can host other vendors’ applications and solutions and seamlessly integrate them into the cybersecurity platform, so there are fewer devices to patch and defend, and fewer vectors through which cybercriminals can attack.

Understand your attack surface

A centralized, vendor-neutral cybersecurity platform is able to dig its hooks into every component of an enterprise network, providing a complete overview of the entire architecture. With this holistic view, security analysts gain a better understanding of the attack surface and what’s needed to protect each vulnerability. For example, a cybersecurity platform can provide information about software versioning to help with security patch management or help identify which ports are open in various applications and why. Armed with this knowledge, an organization can then deploy granular policies, tools, and controls that are custom-tailored to provide the best defense.

Mitigate human error

Even the best network engineer, working in the ideal environment, will occasionally make mistakes. For example, a recent FAA outage that delayed thousands of flights was caused by a contractor mistakenly deleting some files. And unfortunately, the combination of a tech industry recession and a tech talent gap has meant that many IT teams are overworked and understaffed – far from an ideal situation. Human error is a leading cause of successful breaches, so network automation can reduce human error by letting scripts and playbooks handle many of the tedious and repetitive workflows involved in network management. An out-of-band cybersecurity platform can host or integrate with all the leading automation solutions and scripting languages, giving overworked admins the freedom to use the tools they’re most comfortable with. The centralized platform consolidates automated workflows in a single place for streamlined deployments and efficient management. Organizations can even achieve hyperautomation – automating every task and workflow across the network and security architecture – using the cybersecurity platform as an orchestration hub. This empowers understaffed teams to optimize network performance and security while reducing manual interventions, mitigating the risk of human error.

Ensure 24/7 coverage and availability

An out-of-band cybersecurity platform uses a dedicated network interface – such as a 5G cellular modem – to ensure continuous management access even when there’s an outage on the production network. That means admins have 24/7 access to the cybersecurity platform itself, as well as the devices and systems being protected by that platform. And, crucially, all of the security policies and tools will continue to protect production network infrastructure during that downtime. This continuous availability makes it possible for IT teams to remotely recover from device and network failures without the need for costly and time-consuming truck rolls. Or, in the event of a successful attack such as ransomware, admins can conduct recovery operations on the OOB network, creating an isolated recovery environment (IRE) that’s inaccessible to attackers.

Why choose Nodegrid as your OOB cybersecurity platform

An out-of-band cybersecurity platform uses OOB infrastructure, vendor-neutral management software, and end-to-end automation to provide holistic network security. The Nodegrid platform from ZPE Systems delivers all of this functionality in a single package. Using Gen 3 out-of-band serial consoles and integrated services routers, Nodegrid can dig its orchestration hooks into every system, device, and solution in your infrastructure for complete control. Nodegrid can host or integrate with your choice of automation tools (such as Chef, Ansible, and Puppet) and security applications (such as NGFWs and SSE) for seamless and unified network security management. Plus, with fast and reliable OOB network interface options – including 5G cellular and Wi-Fi – you can maintain 24/7 security coverage and management availability.

Ready to learn more?

To learn more about the Nodegrid out-of-band cybersecurity platform, contact ZPE Systems today. Contact Us

Uplogix 5000 Local Manager EOL Best Replacement Options

A businessman considers two different options, such as which model to replace the Uplogix 5000 Local Manager EOL with
The Uplogix 5000 Local Manager line of serial console servers will go end-of-life (EOL) on December 31, 2025, with software support ending on December 31, 2023. Uplogix recommends the LM83X as a replacement model, but there are some concerns and limitations to be aware of before you make this switch. In this blog, we’ll compare the new LM83X to the Uplogix 5000 Local Manager and discuss an alternative replacement option.

About the Uplogix 5000 Local Manager

The 5000 Local Manager is Uplogix’s flagship serial console, providing out-of-band (OOB) management for up to 38 devices. Management access is delivered via two 10/100/1000 Mbps Base-T Ethernet interfaces, with a slot available for an optional v.92 modem, cellular SIM, RS-232 card, or fiber module.

All Uplogix serial console servers use the Local Manager software platform for monitoring and management. This software includes automation capabilities for routine management, maintenance, and recovery tasks. However, the Local Manager platform does not support the use of third-party automation tools or custom scripts. In addition, while the 5000 Local Manager hardware can access and manage devices from other vendors, the management software is not easily extensible by the customer. That means users are locked into the vendor’s feature roadmap and automation capabilities.

Uplogix 5000 Local Manager tech specs:

System
CPU Intel 1.3 GHz Atom
RAM 1 GB
Storage 40 GB 2.5″ SSD
Local interfaces – Up to 38 x RS-232 Serial ports

– Up to 8 x dedicated 10/100/1000 Mbps Ethernet ports

– 1 x RS-232 Power management port

– 1 x RJ-11 Modem port

– 2 x USB ports

Management interfaces – 2 x 10/100/1000 Mbps Base Ethernet interfaces

– 1 x RS-232 Console port

Option slots 1 available for field installable internal modems (v.92, cellular, or RS232) or a fiber module
Expansion slots 2 available for:

– 8 Port Serial card

– 16 Port Serial card

– 8 Port Ethernet card (10/100/1000 Mbps)

Power Dual AC or Dual DC
Features
Vendor-neutral Heterogeneous device access and management
Security – Secure Shell (SSHv2)

– TACACS and Radius authentication

– IP and caller ID filtering

– FIPS 140-2 Level 2

– Automatic session management to prevent unauthorized access

– Enforces RBAC, command-level authorization

– Logging of user access, device changes, and session activity

OOB/Failover – POTS lines

– Cellular modems

– Fiber

– DSL

– Satellite

Device monitoring In-band or out-of-band data collection every 5 to 30 seconds
Environmental monitoring – Temperature

– Humidity

Remote access – SSHv2

– Secure access to web-only management interfaces

Automation Rule-based engine for automation of routine management tasks

– No third-party automation

– cannot be easily expanded by customer

Remote power management Monitors and controls power, can remotely restart a managed device

Uplogix ended the sale of the 5000 Local Manager at the end of 2020, with the EOL date set at 12/31/2022. The EOL Uplogix 5000 product SKUs are listed below.

Uplogix 5000 EOL replacement option: The Uplogix LM83X

Uplogix released a new Local Manager serial console to replace the 5000: the LM83X. This model can manage up to 104 devices through the use of three expansion bays for additional serial and Ethernet ports. In addition to two 10/100/1000 Base-T Ethernet interfaces, the new Local Manager has a 1-Gbps SFP port for faster management access.

The LM83X runs on the same Local Manager software platform as its predecessor, which means it also suffers from vendor lock-in and limited automation capabilities. In addition, the Uplogix platform has some advanced security features like FIPS 140-2 Level 2 certification and support for Radius authentication, but it doesn’t support SAML 2.0 for cross-domain single sign-on. That makes it difficult to extend Zero Trust Security best practices to the out-of-band management network, which can leave the entire enterprise vulnerable to an attack.

Another crucial consideration is that Uplogix was just bought by Lantronix, one of its biggest competitors. It’s still unknown how Uplogix will be integrated, leaving existing customers uncertain about the future of their hardware and software support contracts.

Uplogix 5000 Local Manager vs. LM83X tech specs:

Uplogix 5000 Uplogix LM83X
System
CPU Intel 1.3 GHz Atom Not listed
RAM 1 GB Not listed
Storage 40 GB 2.5″ SSD 256 GB NVMe
Local interfaces – Up to 38 x RS-232 Serial ports

– Up to 8 x dedicated 10/100/1000 Mbps Ethernet ports

– 1 x RS-232 Power management port

– 1 x RJ-11 Modem port

– 2 x USB ports

– Up to 104 x RS-232 Serial ports

– 1 x USB-A port

– 1 x USB-C port

Management interfaces – 2 x 10/100/1000 Mbps BaseT Ethernet interfaces

– 1 x RS-232 Console port

– 2 x 10/100/1000 BaseT Ethernet ports

– 1 x 1-Gbps SFP port

Option slots 1 available for field installable internal modems (v.92, cellular, or RS232) or a fiber module 1 available for field installable internal modems (v.92, cellular, or RS232) or a fiber module
Expansion slots 2 available for:

– 8 Port Serial card

– 16 Port Serial card

– 8 Port Ethernet card (10/100/1000 Mbps)

3 available for:

– 8 Port, 16 Port, or 32 Port Serial cards

– 8 Port Ethernet card (10/100/1000 Mbps)

– LCD keypad

Power Dual AC or Dual DC Redundant internal universal power
Features
Vendor-neutral Heterogeneous device access and management Heterogeneous device access and management
Security – Secure Shell (SSHv2)

– TACACS and Radius authentication

– IP and caller ID filtering

– FIPS 140-2 Level 2

– Automatic session management to prevent unauthorized access

– Enforces RBAC, command-level authorization

– Logging of user access, device changes, and session activity

– Secure Shell (SSHv2)

– TACACS and Radius authentication

– IP and caller ID filtering

– FIPS 140-2 Level 2

– Automatic session management to prevent unauthorized access

– Enforces RBAC, command-level authorization

– Logging of user access, device changes, and session activity

OOB/Failover – POTS lines

– Cellular modems

– Fiber

– DSL

– Satellite

– POTS lines

– Cellular modems

– Fiber

– DSL

– Satellite

Device monitoring In-band or out-of-band data collection every 5 to 30 seconds In-band or out-of-band data collection every 5 to 30 seconds
Environmental monitoring – Temperature

– Humidity

– Temperature

– Humidity

Remote access – SSHv2

– Secure access to web-only management interfaces

– SSHv2

– Secure access to web-only management interfaces

Automation Rule-based engine for automation of routine management tasks

– No third-party automation

– Not easily expandable

Rule-based engine for automation of routine management tasks

– No third-party automation

– Not easily expandable

Remote power management Monitors and controls power, can remotely restart a managed device Monitors and controls power, can remotely restart a managed device

Alternative Uplogix 5000 EOL replacement options from ZPE Systems

The Uplogix Local Manager solutions are what’s known as second generation, or Gen 2, out-of-band serial consoles. That means they provide heterogeneous device management, built-in security features, and some automation capabilities. However, they fall short of true vendor neutrality, which makes it impossible to achieve end-to-end network automation. In addition, without SAML 2.0 support, Uplogix devices are vulnerable to compromise by malicious actors who could use them to gain control over the production network.

To get secure and extensible OOB management access with end-to-end automation capabilities, you need a Gen 3 out-of-band serial console solution like the Nodegrid platform from ZPE Systems.

About the Nodegrid Serial Console Plus (NSCP)

The Nodegrid Serial Console Plus (NSCP) provides Gen 3 OOB management for up to 96 devices, including support for Cisco and legacy pinouts. Management access is delivered via two Gigabit Ethernet ports, two SFP+ ports, or v.92 modem, with out-of-band and network failover to dual SIM 5G/4G LTE cellular, WiFi, or v.92 modem.

All Nodegrid devices can be managed with one of two offerings: the on-premises Nodegrid Manager software or the ZPE Cloud application. Both solutions are easily extensible with your choice of third-party applications for infrastructure automation and orchestration, security, big data analytics, and more. Nodegrid hardware can even directly host other vendors’ software, giving you a convenient platform for Docker containers, Infrastructure as Code (IaC) playbooks, Security Service Edge (SSE) applications, and SD-WAN solutions.

The Gen 3 NSCP protects your infrastructure using Zero Trust best practices like SAML 2.0 support, disk encryption, and secure boot. ZPE Systems is also the only serial console vendor with a FIPS 140-3 pre-certification, making them the most secure OOB solution on the market.

Head-to-head: Uplogix 5000 vs. Uplogix LM83X vs. NSCP tech specs

Uplogix 5000 Uplogix LM83X Nodegrid Serial Console Plus (NSCP)
System
CPU Intel 1.3 GHz Atom Not listed Intel x 86, 64 bit
RAM 1 GB Not listed 4 GB / 8 GB
Storage 40 GB 2.5″ SSD 256 GB NVMe 32 GB FLASH
Local interfaces – Up to 38 x RS-232 Serial ports

– Up to 8 x dedicated 10/100/1000 Mbps Ethernet ports

– 1 x RS-232 Power management port

– 1 x RJ-11 Modem port

– 2 x USB ports

– Up to 104 x RS-232 Serial ports

– 1 x USB-A port

– 1 x USB-C port

– Up to 96 x RS-232 Serial ports

– 2 x 1-GbE Ethernet

– 2 x SFP+

– 2 x USB 3.0 ports

– 1 x HDMI port

– 1 x Console port

– can manage devices RS-232, USB, IPMI, SSH,Telenet, WebUI, RESTAPI

– can manage over 500 devices (mix of serial and IP) on a single appliance

Management interfaces – 2 x 10/100/1000 Mbps BaseT Ethernet interfaces

– 1 x RS-232 Console port

– 2 x 10/100/1000 BaseT Ethernet ports

– 1 x 1-Gbps SFP port

– 2 x 1-GbE Ethernet

– 2 x SFP+

– 1 x v.92 Modem

Option slots 1 available for field installable internal modems (v.92, cellular, or RS232) or a fiber module 1 available for field installable internal modems (v.92, cellular, or RS232) or a fiber module – Wi-Fi

– Dual SIM 5G/4G LTE cellular

– v.92 modem

Expansion slots 2 available for:

– 8 Port Serial card

– 16 Port Serial card

– 8 Port Ethernet card (10/100/1000 Mbps)

3 available for:

– 8 Port, 16 Port, or 32 Port Serial cards

– 8 Port Ethernet card (10/100/1000 Mbps)

– LCD keypad

Power Dual AC or Dual DC Redundant internal universal power Single or Dual AC, Dual DC
Features
Vendor-neutral Heterogeneous device access and management Heterogeneous device access and management – Vendor-neutral device access and management

– Can directly host third-party apps for security, automation, etc.

– Platform integrates with third-party solutions not hosted on Nodegrid hardware

– Can extend Zero Touch Provisioning to other vendor devices

Security – Secure Shell (SSHv2)

– TACACS and Radius authentication

– IP and caller ID filtering

– FIPS 140-2 Level 2

– Automatic session management to prevent unauthorized access

– Enforces RBAC, command-level authorization

– Logging of user access, device changes, and session activity

– Secure Shell (SSHv2)

– TACACS and Radius authentication

– IP and caller ID filtering

– FIPS 140-2 Level 2

– Automatic session management to prevent unauthorized access

– Enforces RBAC, command-level authorization

– Logging of user access, device changes, and session activity

Hardware Security:

– TPM 2.0

– Encrypted solid-state disk

– UEFI BIOS with protection

– Secure boot (signed OS)

– Geofencing

Authentication:

– Local

– RADIUS

– TACACS+

– LDAP/AD

– NIS and Kerberos

– SAML 2.0 (Okta, Duo, PingID, ADFS)

OOB/Failover – POTS lines

– Cellular modems

– Fiber

– DSL

– Satellite

– POTS lines

– Cellular modems

– Fiber

– DSL

– Satellite

– 5G/4G/LTE

– V.92 modem

– Wi-Fi

Device monitoring In-band or out-of-band data collection every 5 to 30 seconds In-band or out-of-band data collection every 5 to 30 seconds – Keystroke logging

– Logging to ZPE Cloud, NFS, Local

– Alert on cable disconnects

Environmental monitoring – Temperature

– Humidity

– Temperature

– Humidity

– Particulate

– Smoke

– Airflow & temperature

– Proximity/door lock

– Temp & humidity

– 7-port USB hub

– 8-port GPIO

– 4-port Relay

Remote access – SSHv2

– Secure access to web-only management interfaces

– SSHv2

– Secure access to web-only management interfaces

– SSH direct to consoles

– ZPE Cloud (web) or Nodegrid Manager (local)

Automation Rule-based engine for automation of routine management tasks

– No third-party automation

– cannot be easily expanded by customer

Rule-based engine for automation of routine management tasks

– No third-party automation

– cannot be easily expanded by customer

– ZPE Cloud

– Chef

– Docker

– KVM Hypervisor

– Puppet

– Python

– RedHat Ansible

– Ruby

– ShellScript

– Node.js JavaScript

Remote power management Monitors and controls power, can remotely restart a managed device Monitors and controls power, can remotely restart a managed device – Support major power strip manufacturers

– Power management integrated with serial session (escape sequence in the serial session or power buttons in web serial session)

– Power control of VMs

– Access rights for users and user groups

The Uplogix LM83X is the direct replacement for the EOL Uplogix 5000 Local Manager, which means it provides the same base capabilities with some upgraded hardware features. However, this also means the LM83X suffers from the same limitations as its predecessor, namely a lack of SAML 2.0 integration and a closed management platform that doesn’t support third-party automation. To achieve end-to-end network automation, you need a Gen 3 OOB serial console solution like the Nodegrid Serial Console Plus.

Uplogix 5000 Local Manager EOL product SKUs

Product SKU Description End of Hardware Support End of Software Support End of Life End of Sale
71-1321-10 FIPS Uplogix 5000 Local manager, 14 Serial, V.92 modem 12/31/2023 12/31/2025 12/31/2025 12/31/2020
61-5001-01 Uplogix 5000 8 Port Serial Expansion Module w/LMS-FIPS 12/31/2023 12/31/2025 12/31/2025 12/31/2020
61-5500-30 Uplogix 5000 Local Manager 12/31/2023 12/31/2025 12/31/2025 12/31/2020
61-5500-33 FIPS Uplogix 5000 Local Manager 12/31/2023 12/31/2025 12/31/2025 12/31/2020

Ready to replace your Uplogix 5000​?

To replace your Uplogix 5000 Local Manager EOL serial console server with the Gen 3 Nodegrid Serial Console Plus, Contact ZPE Systems today!

Request a Demo Today

Implementing a Network Modernization Strategy for Large-Scale Organizations

Two engineers plan a network modernization strategy from a platform overlooking racks of data center infrastructurea
The COVID-19 pandemic forced many large-scale organizations to decentralize their business operations to enable remote work, which shined a spotlight on how outdated their enterprise networks are. As other world events like wars, a recession, and virus resurgences continue to impact business, organizations must modernize their network infrastructure if they want to survive. However, their survival is also contingent on their ability to meet SLAs and maintain 24/7 availability, so it’s crucial to minimize the disruption caused by infrastructure upgrades. This blog provides advice to large-scale organizations on how to implement a network modernization strategy that minimizes disruptions while leaving room for future growth and innovation.

The importance of network modernization

Network infrastructure updates are expensive and can be disruptive, leaving many large companies wondering if the payoff is worth the risks. However, when COVID-19 struck, these organizations were left scrambling to replace their outdated and insecure VPN solutions with more robust remote connectivity technology. Similarly, in the current recession, enterprises that put off network modernization in the past are now finding themselves without the remote management and orchestration capabilities they need to keep their infrastructure running optimally with reduced staff. Even without the looming threat of major world disruptions, outdated network infrastructure poses a risk to large-scale organizations. Obsolete devices are no longer patched by the vendor, which means any vulnerabilities that exist will remain open for hackers to exploit. Older equipment is also more likely to break, and may not be supported by the provider, making it more difficult and expensive to recover from a failure. Plus, outdated infrastructure hampers an enterprise’s ability to innovate with new technologies to stay competitive in the market. Upgrading network infrastructure is expensive, time-consuming, and requires careful planning to prevent business interruption. However, investing in network modernization now will save you from more costly disruptions in the future.

A network modernization strategy for large-scale organizations

Enterprises need to carefully plan their path to network modernization to ensure they can meet their customer SLAs by avoiding outages and performance degradation. Here are some tips for implementing a network modernization strategy that minimizes disruption while leaving room for future growth.

Bridge the gap with a vendor-agnostic platform

To ensure a smooth upgrade process, organizations will gradually upgrade their infrastructure by replacing individual solutions one at a time. There’s typically an extended window of time in which there are both legacy and modern devices that need to be monitored, managed, and supported. This creates additional complexity for administrators who need to learn how to use the new solutions, integrate them with the existing infrastructure, and ensure there’s little-to-no impact on end users. It’s especially challenging when they need to use different management platforms to access and control each solution. That’s why it’s important to implement a vendor-agnostic network management platform that supports legacy and multi-vendor solutions. A vendor-agnostic platform gives administrators a single pane of glass from which to control the entire heterogeneous network architecture, simplifying day-to-day management and allowing them to focus on optimizing performance and implementing future upgrades. Plus, a unified platform makes it possible to extend new technological capabilities (like remote OOB management and automation) to older infrastructure, accelerating network modernization efforts.

Reduce downtime with remote out-of-band management

Any experienced admin knows that installations and updates are risky procedures. Even with the best-laid plan, errors can occur that prevent new systems from coming online, cause integration issues with existing infrastructure, or even take down dependent network services. The risk is even greater when the upgrades occur remotely without any technicians on-site to power cycle devices or reconfigure systems offline. What if there’s an outage or severe disruption, but COVID lockdowns or natural disasters prevent staff from entering these locations? Remote out-of-band (OOB) management creates an alternative path that admins use to access remote infrastructure. It creates an out-of-band network that’s dedicated to infrastructure management and orchestration and that doesn’t rely on the availability of the production network. That means administrators can access and troubleshoot offline devices remotely, reducing the duration and impact of downtime. Remote OOB management makes it safer for large-scale organizations to implement a network modernization strategy and ensures the continued stability and availability of enterprise infrastructure.

Streamline deployments with automation

Even when new infrastructure deployments run smoothly, they take considerable time and effort on the part of network administrators. Large, global organizations have complex and highly distributed network architectures with thousands of moving parts that need to be upgraded or replaced. Just configuring and installing all of these new solutions can add significant delays to the network modernization process. Plus, configuring so many devices is tedious and prone to human error, causing more delays as admins troubleshoot and fix deployment failures. For example, a typo in an IP address on one device could prevent dependent services from deploying correctly, forcing teams to retrace their steps and waste time identifying the error. Automation is the key to streamlining device deployments and reducing configuration errors. For example, Zero Touch Provisioning (ZTP) allows admins to provision new devices automatically over the network using definition files. These files can be reused as many times as needed to deploy many identical solutions across the enterprise network, significantly reducing the time and effort required to modernize infrastructure. Plus, configuration files can be tested pre-deployment to ensure there are no errors or security vulnerabilities. Vendor-agnostic network management platforms, OOB management, and automation are crucial components of a smooth network modernization strategy. Implementing this strategy is easier if you choose a management solution that integrates all these capabilities into a single, unified platform.

Make Nodegrid a part of your network modernization strategy

The Nodegrid platform from ZPE Systems delivers vendor-agnostic control, Gen 3 OOB management, and end-to-end network automation capabilities in a single box. Nodegrid has helped large-scale organizations like the Internet Association of Australia update their network infrastructure without disrupting business. Nodegrid serial consoles support both legacy and modern Cisco pinouts, allowing them to dig their hooks into any device in your network infrastructure. That means you can use the ZPE Cloud solution to extend automation and orchestration to your entire heterogeneous architecture, supercharging your network modernization efforts. Nodegrid uses high-speed OOB interfaces (e.g., 5G/4G cellular) to provide admins with a fast and reliable connection for remote upgrades, management, and orchestration. Nodegrid allows you to power cycle devices, enter BIOS menus, manage power load distribution, and more from anywhere in the world with an internet connection. This makes it easier and safer for large-scale organizations to remotely upgrade their network infrastructure and ensures continuous management availability to prevent downtime in the future. The vendor-agnostic Nodegrid platform also allows you to extend automation features like ZTP to both legacy and modern solutions in your network infrastructure. Nodegrid supports integrations with your choice of third-party automation tools, or you can use Nodegrid hardware to directly host custom scripts and automation apps. This both streamlines the network modernization process and gives you the ability to grow and evolve your network with emerging automation technologies like AIOps. Nodegrid streamlines network modernization strategies by providing vendor-agnostic management, remote OOB management, and end-to-end automation support in a single platform. 

Want to learn more about Nodegrid’s role in enterprise?

To learn more about Nodegrid’s role in an enterprise network modernization strategy, contact ZPE Systems today. Contact Us

Using AIOps and Machine Learning To Manage Automated Network Infrastructure

shutterstock_1825096265(1)

Automation is the key to maintaining optimal network performance and availability during tumultuous times. A resilient, automated network keeps functioning even if administrators can’t physically access the infrastructure or when a recession forces companies to reduce their IT workforce. A network automation framework includes all the tools, technologies, and practices required to build a resilient and fully automated enterprise network infrastructure.

The four building blocks of a resilient network automation framework include:

  1. IT/OT production infrastructure
  2. Automation infrastructure
  3. Orchestration infrastructure
  4. AIOps

In previous blogs, we focused on the building blocks that enable network automation and orchestration. In this blog, we’ll discuss how AIOps and machine learning help teams manage their automation and orchestration—and the massive amounts of data produced by their automated systems—more efficiently.

What is AIOps?

AIOps—artificial intelligence for IT operations—was originally introduced by Gartner in 2017. It uses AI technologies like machine learning (ML) and natural language processing (NLP) to analyze IT operations data. This data is pulled in from many different sources, including monitoring and visibility platforms, environmental monitoring sensors, event logs, and firewalls. AIOps utilizes that data to automate tasks like event correlation, anomaly detection, and root cause analysis (RCA) as well as to predict future outcomes and provide valuable business insights.

What’s the difference between AI and machine learning?

Before we delve any deeper into the specific uses for and benefits of AIOps, it’s important to clarify what we mean when we talk about technologies like AI and machine learning.

AI stands for artificial intelligence, which is defined as a computer’s ability to display human-like intelligence through behaviors like learning from new data, drawing conclusions based on that data, and coming up with solutions to problems.

Machine learning, on the other hand, describes a computer’s ability to process large quantities of data and learn from it. Learning is a major requirement for AI, which means that all machine learning applications could be considered AI. However, not all AI is machine learning—artificial intelligence uses additional technology to make decisions, solve problems, and perform other automated functions.

Essentially, AI describes a broad range of technologies, whereas machine learning is a more specific subset of technologies included in the AI umbrella. In the context of AIOps, however, machine learning is often the only artificial intelligence technology in use.

Using AIOps and machine learning to manage automated network infrastructure

In an automated enterprise network, AIOps and machine learning use advanced algorithms to provide in-depth analysis of all the data collected from production infrastructure, automation components, and orchestration systems. AIOps solutions can even take things a step further by making decisions and solving problems based on the results of that data analysis.

Some examples of how AIOps and machine learning can be used to manage automated network infrastructure include:

Security

Cyberattacks and data breaches are major threats to the reliability and performance of network infrastructure. In addition to the financial losses caused by sensitive data exfiltration and reputation loss, security breaches are also a leading cause of downtime, which directly impacts business revenue. According to the ITIC’s 2022 Global Server Hardware Security survey, 76% of enterprises cited security breaches as the top cause of downtime. That means network security is paramount to the resilience of an automated infrastructure.

For many years, network security relied on signature-based detection for jobs like intrusion prevention, antivirus, and spam filtering. Signature-based detection involves comparing an incoming request to a database of known threats to see if it matches—if not, it’s assumed to be safe and allowed into the network. This approach only works if the database is kept up to date and if all incoming threats have been identified in the past. Signature-based detection often fails to catch zero-day exploits or novel malware that it hasn’t seen before, plus it tends to generate a lot of false positives.

AIOps security solutions overcome this problem by learning from past experiences. Machine learning is able to extract information from past threats and then develop algorithms to recognize, predict, and categorize a new threat that it’s never seen before. This makes AIOps adept at preventing new threats as well as detecting ones already on the network.

You can also use AIOps to analyze data from infrastructure logs and other security solutions to spot the more subtle signs of a breach that’s already happened or that’s currently taking place. For example, AIOps and machine learning may detect an unusually large amount of data leaving the network, which could indicate that a malicious actor is exfiltrating sensitive information. Another security use for AI is called User and Entity Behavior Analytics (UEBA), which inspects account activity on a network and reports anomalous behavior that could indicate an account has been compromised.

AIOps improves upon automated network security solutions by using adaptive learning and predictive analysis to detect new and unusual threats with a greater degree of accuracy. It also takes advantage of the massive amounts of data produced by security appliances and network infrastructure to identify the subtle clues left behind by sophisticated cybercriminals. This makes AIOps a valuable tool for maintaining the security and availability of an automated network infrastructure.

Monitoring

An automated network infrastructure generates a massive quantity of logs that can be used to assess health and performance as well as to identify potential issues before they cause any outages or downtime. However, humans aren’t very good at sifting through large amounts of data to figure out what’s relevant and what isn’t.

Many monitoring solutions use basic automation to help weed out important data, for example by letting admins set performance thresholds that generate automatic alerts when devices fall out of the optimal operating range. However, this kind of automation creates a lot of false positives, which are tedious to sort through and could lead to admin neglect or complacency. It can also only detect specific symptoms and issues that fall within the scope of the monitoring thresholds programmed by a sysadmin, which means it can’t adapt to changing circumstances or predict new problems that weren’t anticipated by the admin in advance.

An AIOps monitoring solution collects all the logs produced by automated infrastructure and analyzes them in real time. Sysadmins can still set performance thresholds and program automatic alerts, but AIOps also uses machine learning to “think outside the box” by recognizing patterns and detecting anomalies it wasn’t programmed to look for. That means issues are identified faster, potentially before they cause any noticeable problems for end-users.

Machine learning also gives AIOps monitoring solutions the ability to track performance over time and predict future outcomes based on historical data. For example, organizations can use AIOps analysis to plan infrastructure upgrade schedules based on when device performance is predicted to start degrading, or in advance of a predicted spike in demand for a particular location. This gives CIOs and IT managers the ability to make smarter decisions about where and when to invest money and how to prioritize new initiatives.

AIOps monitoring solutions work well with data lakes, which are large repositories for unstructured data. Data lakes are an efficient way to process large quantities of data, such as monitoring and security logs. This enables the data to be used by AIOps and other big data tools.

AIOps transforms the flood of logs generated by complex, automated network infrastructures into actionable data. Enterprises can use AIOps and machine learning to catch subtle issues before they turn into major problems, improving the performance and availability of network resources. AIOps also provides valuable business intelligence that organizations can use to make smarter and more cost-effective decisions during recessions and other tumultuous events.

Root cause analysis (RCA)

When there’s an outage or other business interruption, the main priority is fixing whatever is preventing systems from operating normally so that systems can get back online. Often, this means fixing the symptoms of some deeper underlying problem. If that core problem isn’t addressed, it’s likely to cause another outage in the future. That means administrators must perform a root cause analysis (RCA) to discover the source, come up with a fix, and document everything for future reference.

Root cause analysis involves digging through devices, applications, and service logs, which human engineers can’t do as efficiently as AI solutions. AIOps can comb through all the relevant logs to determine the most likely cause of the problem as well as recommend the best solution to fix it. Incidents are automatically generated, prioritized, and assigned to the correct team for resolution, ensuring the core problem is quickly and thoroughly fixed to prevent future outages.

Some AIOps solutions can even automatically resolve some issues without waiting for a human engineer to receive an alert, log in to the system, identify the problem, and implement a solution. This can significantly reduce the mean time to resolution (MTTR) and minimize expensive business interruptions.

Sorting through data is what AIOps does best, which makes it the perfect tool for RCA. AIOps can determine the root cause of automated infrastructure failures much faster than human admins, making it easier to fix these underlying problems before they cause future downtime. AI can even proactively implement fixes while issues are ongoing, allowing businesses to recover faster and reduce the cost of outages.

Implementing AIOps and machine learning in a resilient network automation framework

AIOps is the final layer of the network automation framework because it reduces the management complexity involved in monitoring, troubleshooting, and optimizing automated network infrastructure. Because AIOps needs to collect logs from every single component of the network automation framework, it must be a vendor-neutral solution that has access to your orchestration platform as well as all your management hardware and software. This will be much easier if your orchestration, automation infrastructure, and IT/OT management infrastructure are also vendor-neutral.

For example, the Nodegrid platform from ZPE Systems includes management devices like Gen 3 OOB serial consoles and integrated network edge routers that can bring your entire mixed-vendor environment under a single management umbrella. Nodegrid hardware is truly vendor-neutral, which means it can directly host your AIOps applications to help consolidate devices in your rack. The ZPE Cloud infrastructure orchestration platform also supports integrations with third-party and cloud-based AIOps solutions. Either way, you get network infrastructure management, monitoring, automation, orchestration, and AIOps in a single platform.

ZPE’s Network Automation Blueprint

AIOps works together with IT/OT production infrastructure, automation infrastructure, and orchestration to ensure network resiliency during uncertain times. The Network Automation Blueprint from ZPE Systems provides a reference architecture for achieving Gartner’s definition of hyperautomation as well as meeting the Open Networking User Group (ONUG) Orchestration and Automation recommendations.

Download the Network Automation Blueprint today and see how all these building blocks fit together to ensure network resiliency.

Ready to learn more about implementing AIOps and machine learning?

To learn more about implementing AIOps and machine learning with Nodegrid, contact ZPE Systems today.

Contact Us