Network coverage	Ontario-wide with 80+ Points of Presence
Autonomous System Number (ASN)	19752
Port types	Ethernet: 100 Mbps, 1 Gbps, 10 Gbps and 100 Gbps
Upstream Providers	Multi-homing bandwidth via Tier 1 operators
Peering Exchanges	TorIX, QIX, and NYIIX
IP Support	IPv4 and IPv6
Service Level Agreement	Credit-backed Performance SLA
Customer Support	24x7x365
Billing Model	Flat rate
Security Features	DDoS Shield*
Ad Hoc Reports	Shared upon request

Acronym Solutions

How Crosslake Fibre and Acronym Solutions Created a Strategic Cross-Border Partnership

Zia Shahid — Fri, 24 Jul 2026 21:21:05 +0000

WHITEPAPER

How Crosslake Fibre and Acronym Solutions Created a Strategic Cross-Border Partnership

In an industry where most providers operate transactionally, Acronym Solutions and Crosslake Fibre have built something different: a two-way partnership grounded in trust, mutual reliance, and shared technical expertise. Both organizations brought something distinct to the table: Acronym with its extensive Ontario fibre network, and Crosslake with its unique subsea infrastructure under Lake Ontario. Built on complementary network strengths, the relationship became a working partnership focused on solving real customer challenges. As demand for high-performance connectivity continues to grow, the priority extends beyond building networks to delivering them in a way that meets increasingly critical expectations.

"IT'S A SYMBIOTIC RELATIONSHIP WHERE BOTH COMPANIES GENUINELY RELY ON EACH OTHER." — LUBO VACULIK, MANAGING DIRECTOR, SALES AT ACRONYM SOLUTIONS

Key Takeaways

Strategic, Two-Way Partnership: Rather than operating transactionally, Acronym (regional Ontario fibre infrastructure) and Crosslake Fibre (subsea Lake Ontario path) leveraged complementary assets to expand cross-border connectivity into the U.S. and across Canada.
Purpose-Built Engineering over “Off-the-Shelf”: To serve high-stakes capital markets, the teams co-engineered custom infrastructure—including a new east-side entrance into the Toronto Stock Exchange (TMX) facility and a diverse route through Ottawa to Montreal.
Enhanced Resilience & Low Latency: The joint route bypasses traditional downtown Toronto bottlenecks to provide critical route diversity, ultra-low latency, and financial-grade redundancy between the TMX and the New York/New Jersey liquidity triangle.
Accelerated Speed to Market: Joint engineering, aligned planning, and direct communication reduced operational risk and streamlined complex permitting and construction processes.
Proven Financial & Strategic Results: Across 10 joint projects, the partnership has driven recurring revenue, extended Acronym’s reach into U.S. markets, and deepened Crosslake’s footprint across Ontario.

The Challenge

In high-stakes environments like capital markets, milliseconds carry real financial consequences. Trading platforms demand near-zero downtime, and even minimal disruption can impact data integrity and market confidence.

For Crosslake, a leader in ultra-low-latency connectivity between the Toronto Stock Exchange (TMX) and the New York–New Jersey liquidity triangle, the challenge was not performance alone, it was how to scale it. Its subsea fibre route under Lake Ontario established clear differentiation. Extending their high performance connectivity deeper into Canada required:

Route diversity beyond traditional downtown Toronto pathways to ensure full redundancy and uptime
Infrastructure aligned with financial-grade precision

To connect the TMX to Montreal and Ottawa in a way that met these requirements, Crosslake needed a partner whose network and capabilities could match its own.

At the same time, Acronym was looking to expand its cross-border capabilities while continuing to build on its Ontario-based network. What both organizations required was a partner capable of working at their level—technically, operationally, and strategically.

The Solution

With complementary infrastructure and a shared approach to network design, Acronym and Crosslake built a partnership centered on delivering high performance connectivity across Canada and into the United States. Each organization brings established strengths:

Acronym:

Fibre infrastructure across Ontario, enabling connectivity into Toronto, Ottawa, and Montreal
The ability to design and deliver custom-built routes, including new network entry points

Crosslake:

A subsea fibre route under Lake Ontario, forming the lowest latency path between Canada and the U.S.
A network built specifically for performance-sensitive financial connectivity

The value of these unique capabilities is how they’re used to deliver solutions designed for highly specific routing and performance requirements.

The TMX–Montreal Build

An example of this partnership in action is the TMX–Montreal route. Crosslake required a fully diverse path out of the TMX that avoided traditional downtown routes while integrating into its broader network. From the outset, both teams worked together to define how that path would be built. Planning moved quickly into joint design, with engineering guiding execution. Both teams remained closely involved as the solution developed.

The resulting path included:

A new entrance into the TMX facility from the east side
A diverse fibre route through Ottawa to Montreal
Integration into Crosslake’s backbone for onward connectivity into New York

"THIS WASN'T OFF-THE-SHELF. IT WAS ENGINEERED AND BUILT SPECIFICALLY TO MEET THEIR NEEDS." — LUBO VACULIK, MANAGING DIRECTOR, SALES, ACRONYM SOLUTIONS

This project required coordinated engineering, permitting, and construction, supported by continuous communication. Rather than adapting an existing route, the solution was purpose-built.

Working as One Team

The TMX–Montreal project reflects how Acronym and Crosslake work together more broadly. Planning is closely tied to engineering input, ensuring what is proposed can be delivered. This allows both teams to move forward with clarity. Throughout delivery, communication remains direct and consistent, allowing issues such as permitting or site access to be addressed quickly. This approach extends beyond individual builds:

Acronym incorporates Crosslake’s subsea route to support its cross-border connectivity
Crosslake relies on Acronym’s infrastructure to extend its reach across Ontario

In practice, both teams operate as close partners,
designing and delivering solutions that meet
demanding network requirements.

The Results

"WE’RE PROACTIVE, CREATIVE, AND DYNAMIC IN HOW WE BUILD SOLUTIONS, AND WE DEMAND THE SAME FROM OUR PARTNERS. THE TMX PROJECT IS A PRIME EXAMPLE—CUSTOM CONSTRUCTION, COMPLEX PERMITTING, AND A SOLUTION THAT SIMPLY WOULDN’T HAVE BEEN POSSIBLE AS AN OFF-THE-SHELF PRODUCT." — FERGUS INNES, CCO, CROSSLAKE FIBRE

The Acronym-Crosslake partnership has delivered tangible strategic value
for both organizations and their clients:

Expanded Network Reach: Together, they’ve created high-capacity
routes from Toronto through Ottawa and Montreal, extending directly
into the U.S. through integrated cross-border infrastructure.
Enhanced Route Diversity: Acronym’s custom-built TMX entrance and
regional fibre assets complement Crosslake’s subsea route, providing
critical geographic redundancy.
Accelerated Project Delivery: Shared trust and communication
improve timelines and reduce operational risk.
Cross-Border Market Growth: Acronym enables Canadian enterprises
to access U.S. connectivity, while Crosslake expands its presence
across Ontario through Acronym’s regional network.
Strong Customer Solutions: Throughout 10 projects, they’ve delivered
high-performance connectivity, generated recurring revenue, and
strengthened both networks.

The Takeaway

The Acronym–Crosslake partnership reflects what’s possible when
infrastructure, technical depth, and an engineering-first mindset are combined with a transparent approach to problem-solving.

Together, they’ve created differentiated routes that neither could offer alone,
enabling clients to achieve enhanced route diversity, resilience, and performance in one of the most latency-sensitive industries in the world.

By coordinating how their networks extend across borders, both organizations have scaled high-performance connectivity, expanding Acronym’s reach into the U.S. and strengthening Crosslake’s presence in Canada.

This approach defines how Acronym works with partners: building relationships that extend networks, strengthen capabilities, and deliver lasting value where it matters most.

"WE CAN’T DO THIS ALONE. WE NEED PARTNERS IN SPECIFIC GEOGRAPHIES WHO SHARE OUR VIEW OF WHAT INFRASTRUCTURE SHOULD BE. RELATIONSHIPS LIKE THE ONE WE HAVE WITH ACRONYM ALLOW US TO GROW." — FERGUS INNES, CCO, CROSSLAKE FIBRE

FAQ's

Q: What core challenge did Acronym and Crosslake Fibre set out to solve?

Ethernet Product Summary

Dorit Smali — Mon, 22 Jun 2026 19:46:47 +0000

PRODUCT SUMMARY

Ethernet Product Summary

Reliable, High-Performance Private Networking

Acronym Ethernet delivers dedicated, high-capacity connectivity between locations, data centres, and applications. This private, resilient infrastructure provides a stable foundation to scale operations and maintain consistent performance. We can help you navigate the new business realities with cutting-edge Information and Communications Technology (ICT) solutions that keep pace with the speed of change.

We don’t just build networks. We build scalable, secure solutions that help you navigate digital transformation.

Why Acronym Ethernet?

RESILIENT ARCHITECTURE	FLEXIBLE CONNECTIVITY	SERVICE DEPENDABILITY
Network Continuity Self-healing MPLS backbone and Layer 3 protection ensure constant connectivity.	Diverse Access Deploy across fibre, copper, fixed wireless, and LEO satellite environments.	Performance Visibility Optional proactive monitoring and reporting for enhanced network oversight.
Redundant Infrastructure Redundant hardware, dual power and network configurations at 100+ edge routers.	MEF-Compliant Architecture MEF-compliant architecture including EPL, EVPL, or ELAN configurations.	Guaranteed Uptime Protect operations with a credit-backed 99.9% availability SLA.
Proactive Stability Continuous network monitoring and proactive upgrades prevent congestion.	High-Capacity Transport Enable large-scale data transfer with jumbo frames supporting up to 9,000 bytes.	Always-On Support 24/7/365 customer service and technical support.

Move beyond basic connectivity.

Leverage high-capacity solutions built for your infrastructure.

Our suite of ICT solutions

We offer cutting-edge ICT solutions in five major areas:

Service Level Agreement	Credit-backed Availability
Bandwidth Options	1 Mbps to 10 Gbps
Redundancy	Protected and Unprotected Circuits
Network Coverage	Ontario-wide with 80+ Points of Presence
Customer Support	24/7/365
Port Types	Ethernet GigE and 10GigE
Compliance	MEF, IEEE, and ITU Standards
Frame Size Support	1,526 to 9,000 Byte MTU
Billing Model	Flat Rate
Proactive Monitoring	Optional Add-On

About Acronym

Acronym Solutions Inc. is a full-service information and communications technology (ICT) company that provides a range of scalable and secure Network, Voice & Collaboration, Security, Cloud and Managed IT Solutions. We support Canadian businesses, large enterprises, service providers, healthcare providers, public-sector organizations and utilities. We leverage our extensive network expertise to design and build customized, fully scalable solutions to help our customers grow their businesses and realize their full potential. With more than 20 years’ experience managing the communications system that enables Ontario’s electrical grid, Acronym is uniquely positioned to understand the mission-critical needs of any business to deliver the innovative and reliable services that respond to the changing demands of businesses, and support rapid growth and digital transformation initiatives.

Get our latest industry insights right in your inbox

SD-WAN vs Traditional WAN (MPLS VPN): What’s the Real Difference?

Jeff Farley — Wed, 10 Jun 2026 05:28:42 +0000

ARTICLE

SD-WAN vs Traditional WAN (MPLS VPN): What’s the Real Difference?

Jeff Farley

About the author: Jeff is the head of product development and management at Acronym responsible for ensuring Acronym has the most up to date solutions to help businesses in their digital transformation.

Cloud adoption, hybrid work, and SaaS-driven workflows have put enterprise networking at a crossroads. For many Canadian organizations, that means taking a hard look at the MPLS-based WANs they’ve relied on for years, and asking whether they’re still the right foundation. You’ll often hear this question framed as “SD-WAN vs VPN,” but the real comparison runs deeper than that.

SD-WAN is frequently positioned as “the replacement” to traditional WAN, but that framing leaves out a lot of important context. Understanding what’s actually changing between these two network approaches—and what isn’t—is what separates a smart network transformation from an expensive misstep. That’s what this article is here to clarify.

Key Takeaways

SD-WAN is not a replacement for VPN – it uses IPsec VPN tunnels as a core building block.
The real comparison is SD-WAN vs. traditional MPLS-based WAN, not SD-WAN vs. VPN.
SD-WAN enables application-aware routing, direct cloud breakout, and faster network changes.
MPLS VPN still makes sense for latency-sensitive workloads, regulated industries, and areas with unreliable broadband.
Most migrations are phased – SD-WAN and MPLS can coexist during transition.
The right WAN strategy depends on your organization’s cloud footprint, site count, and performance needs.

What Is a Traditional WAN (MPLS VPN)?

A traditional WAN (Wide Area Network) built on MPLS (Multiprotocol Label Switching) is a carrier-managed private network that routes traffic along fixed, predetermined paths. Rather than sending data across the open internet, MPLS creates dedicated circuits between locations—a head office, branch sites, data centres—with guaranteed quality of service (QoS) and predictable performance. For decades, this made it the gold standard for enterprises that needed reliable, low-latency connectivity across distributed sites.

The tradeoff is cost, flexibility and performance. With MPLS, changes often depend on carrier provisioning cycles, while SD-WAN can enable changes to be rolled out faster while still being fully managed and supported. MPLS is more costly on a per-Mbps basis compared to broadband internet. And while MPLS performs exceptionally well for traditional data centre traffic, it wasn’t designed with cloud breakout in mind. For example, routing Microsoft 365 or Salesforce traffic through a centralized MPLS hub before it reaches the internet adds latency and heavily impacts SaaS performance. That gap is exactly where SD-WAN enters the conversation.

What Is SD-WAN?

SD-WAN (Software-Defined Wide Area Network) allows traffic to be managed, routed, and prioritized through software rather than fixed infrastructure. Instead of sending all traffic down a single predetermined path, SD-WAN uses application-aware routing to dynamically direct data across whichever available connection best suits that traffic at that moment (broadband internet, LTE/5G, or even MPLS). In this case, a video call might get treated differently than a file backup, or a Microsoft Teams session may be prioritized over routine data sync. That intelligence happens automatically, in real time.

One important distinction worth clarifying early: SD-WAN is not a transport technology—it uses transports. It doesn’t replace your internet circuits or private links, but rather changes how they’re managed and how traffic moves across them. This is also where the “SD-WAN vs VPN” framing starts to break down. SD-WAN doesn’t compete with VPN technologies—it actually relies on them. IPsec VPN tunnels are a core building block of how SD-WAN encrypts and secures traffic across public internet links. We’ll come back to that distinction in more detail shortly.

SD-WAN vs Traditional WAN (MPLS VPN): How They Compare

Both architectures solve the same fundamental problem: connecting distributed locations securely. However, they approach it very differently. Here’s how SD-WAN vs traditional WAN (MPLS VPN) stack up across the dimensions that matter most to IT and network decision-makers.

Flexibility

MPLS circuits are fixed by design. Adding a new location or adjusting bandwidth requires a formal provisioning process that can take weeks. SD-WAN can be deployed over any available connection and reconfigured in hours, making it potentially better suited to organizations that are growing, restructuring, or supporting a distributed hybrid workforce.

Cloud Access

MPLS was built for a world where applications lived in the private data centre. Routing cloud traffic (like Microsoft 365, Google Workspace, Salesforce, etc.) through a centralized MPLS hub before it reaches the internet introduces unnecessary latency (see the “Tromboning Effect” for more context). SD-WAN enables direct cloud breakout, sending SaaS traffic straight to its destination for faster, more reliable performance.

Cost Structure

MPLS is more costly on a per-Mbps basis, and that cost scales quickly across multiple sites. SD-WAN can run over lower-cost broadband or LTE connections, often delivering better performance at a fraction of the price. For Canadian organizations managing multi-site networks, that difference can add up.

Speed of Change

When business needs shift—a new office, an acquisition, a sudden spike in remote workers—MPLS provisioning timelines can become a real operational constraint. SD-WAN’s software-defined nature means network changes can follow business changes, rather than lagging behind them.

Security

One big advantage of MPLS networks is that they are effectively private, dedicated networks built exclusively for enterprise use and secure by design. The use of public internet connections generally involves the use of routers to separate networks, firewalls to block unwanted network traffic, and other security measures to protect private networks from public network intruders. This also holds true with SD-WAN’s use of internet connectivity—it still needs to be secured.

Why "SD-WAN vs VPN" Is the Wrong Question

“SD-WAN vs VPN” is one of the most common ways people frame this topic. But the comparison doesn’t quite hold up technically, and understanding why makes the decision a lot clearer.

The confusion comes down to the fact that “VPN” means different things in different contexts.

IPsec VPN is a tunneling technology—a method of encrypting traffic between two points.
MPLS VPN is a carrier-managed WAN service—a private network architecture.

These are not the same thing, and conflating them leads to an apples-to-oranges comparison that obscures what’s really being evaluated.

Here’s the most important distinction: SD-WAN doesn’t compete with IPsec VPN—it uses it. IPsec tunnels are how SD-WAN secures traffic across public internet links. So positioning SD-WAN against VPN as though they’re interchangeable alternatives gets the relationship backwards. The more accurate comparison—and the one that actually maps to how network transformation decisions get made—is SD-WAN versus the traditional MPLS-based WAN. That’s the architecture SD-WAN is most often modernizing or replacing.

How SD-WAN and VPN Technologies Actually Work Together

Rather than replacing VPN technologies, SD-WAN operationalizes them at scale. IPsec tunnels run underneath the SD-WAN fabric, encrypting traffic across public internet links while the SD-WAN layer handles intelligent path selection, failover, and policy enforcement on top. For organizations running a hybrid WAN (where MPLS and broadband coexist during a migration), SD-WAN can manage both simultaneously, applying consistent security and routing policies regardless of the underlying transport. The result is a more capable, more manageable network that doesn’t require ripping out what’s already working.

Migration Reality: Moving from MPLS VPN to SD-WAN

For most organizations, the shift from MPLS VPN to SD-WAN is a phased transition that can unfold over months, or even years. A typical starting point is deploying SD-WAN at a handful of high-priority sites while MPLS circuits remain in place, gradually migrating traffic over time. This hybrid WAN state is a practical reality for enterprises that need to maintain uptime and can’t afford disruption during the transition.

The good news is that SD-WAN is designed for exactly this kind of coexistence. Existing MPLS and internet circuits can both feed into the SD-WAN fabric, with traffic distributed intelligently across them from day one.

When MPLS VPN Still Makes Sense

SD-WAN isn’t the right answer for every organization. Here are some examples where MPLS VPN may make more sense:

Highly regulated industries like financial services, healthcare, and government that may have compliance requirements that favour the predictability and privacy of a dedicated private network.
Latency-sensitive workloads like real-time trading platforms or certain voice and video applications that benefit from MPLS’s guaranteed QoS in ways that internet-based connections can’t always match.
In regions where reliable broadband simply isn’t available (which remains a real consideration across parts of Canada), MPLS may be the only viable option for consistent connectivity.

The point is that SD-WAN adoption should be driven by genuine business and technical fit, not by the assumption that “newer” always means better.

How to Think About the Decision

The right question isn’t “SD-WAN or VPN?”—it’s asking about flexibility, cloud readiness, and cost as it relates to your organization. How many sites and users need to be connected? Are latency or performance issues affecting productivity? Are your applications living in the cloud, the data centre, or both? Answering those questions honestly will tell you more about whether SD-WAN is the right move than any feature comparison will.

Choosing the Right WAN Architecture for Today's Enterprise

SD-WAN adoption continues to grow because the problems it solves are real: cloud performance, network agility, visibility, and cost at scale. But the decision to modernize your WAN is less about swapping one technology for another and more about understanding what your network needs to do, and building the architecture that supports it. That means knowing where MPLS still earns its place and where SD-WAN adds clear value.

For Canadian organizations navigating this transition, a managed SD-WAN approach can simplify the path forward by preserving reliability and security while reducing the operational burden on internal IT teams. Remember: the goal isn’t transformation for its own sake. It’s a network that keeps pace with the way your business works. Get in touch for guidance >

FAQ's

Q: Is SD-WAN the same as a VPN?

Wavelength Product Summary

Zia Shahid — Wed, 10 Jun 2026 04:19:57 +0000

PRODUCT SUMMARY

Wavelength Product Summary

Ultra-High-Capacity Connectivity for Data-Intensive Environments

For over 20 years, Acronym Solutions has helped organizations stay connected with reliable, high-performance network solutions. Our Wavelength solutions are purpose-built for businesses that require secure, ultra-high bandwidth connectivity between data centres and key locations.

With up to 400 Gbps per wavelength, Acronym delivers one of the highest-capacity offerings available, enabling you to move massive volumes of data quickly, securely, and without compromise.

Why Acronym Wavelength?

With over 9,800 km of fibre infrastructure, Acronym enables high-performance connectivity, linking your critical locations with speed and reliability.

This foundation supports your most demanding workloads with the capacity, security, and control your business needs.

Key Features and Benefits

Dedicated, High-Performance Transport

Fixed, point-to-point optical paths ensure consistent, predictable performance
Ultra-low latency and minimal jitter with no unnecessary signal conversions

Scalable Bandwidth for Growing Demands

Up to 400 Gbps per wavelength to support the most demanding workloads
Scale capacity to handle peak workloads and future growth
Supports multiple protocols including Ethernet, Fibre Channel, SONET/SDH, and OTN

Resilient, Redundant Infrastructure

Diverse routing and facility entrances for maximum uptime
Fully redundant Points of Presence (PoPs) with power and network failover
Built for business continuity and mission-critical operations

Private, Secure Network Architecture

Fully isolated from public internet traffic
Dedicated channels ensure no shared bandwidth or data overlap
Carrier-grade encryption and SOC 2 Type II compliance

Tailored to Your Network Requirements

Custom-built solutions based on your routing, latency, and capacity needs
Ultra-low latency configurations available for performance-sensitive applications

Always-On Expert Support

24/7/365 technical support and monitoring
Credit-backed SLAs for guaranteed performance

Proactive Monitoring and Reporting (Optional)

Real-time network performance insights via web portal 1.866.345.6820
Proactive outage notifications and detailed reporting

Our suite of ICT solutions

Scale performance for today’s data demands and tomorrow’s growth.

About Acronym

Get our latest industry insights right in your inbox

Dedicated Internet Access (DIA) Product Summary

Zia Shahid — Wed, 22 Apr 2026 03:33:11 +0000

PRODUCT SUMMARY

Dedicated Internet Access (DIA) Product Summary

Secure, High-Performance Connectivity for Ontario’s Mission-Critical Operations

For over 20 years, Acronym Solutions has provided the reliable, robust Dedicated Internet Access (DIA) that Ontario’s essential services depend on. Our high-performance connectivity offers the speed, stability, and scalability your business demands.

Why Acronym DIA?

Performance without Compromise

Experience symmetrical speeds from 100 Mbps up to 100 Gbps. Our low-latency network is built for demanding workloads, ensuring fast and secure data transfers every time.

Resilience by Design

We provide a Layer 3 protected network featuring a self-healing ring topology. With over 9,800 km of fibre-optic lines and 80+ Points of Presence (PoPs), we offer the path diversity and redundancy that standard carriers often cannot provide.

Security You Can Scale

Protect your network from the core to the edge. Our DIA includes optional DDoS Shield protection to quickly identify and block threats before they reach your internal systems.

Expert Support 24/7

We act as an extension of your team. Our 24/7/365 Network Operations Centre (NOC) handles the monitoring and troubleshooting, so your staff can focus on their core priorities.

A Network Built For Your Challenges

Teleprotection

Zia Shahid — Wed, 11 Mar 2026 03:52:15 +0000

PRODUCT SUMMARY

Teleprotection

Maintain Uptime of Critical Infrastructure: Protecting Assets, Preventing Failures, Minimizing Damages, and Ensuring Operational Excellence

For over two decades, Acronym Solutions has been a trusted partner in Ontario’s power and utility sector—designing, managing, and deploying advanced telecommunications solutions for a wide range of power systems.

What Is Teleprotection?

Teleprotection allows monitoring and management of the power grid, supporting secure and seamless operations. By isolating faults and preventing damage, it enables rapid disconnection from the broader power network when necessary. This capability ensures minimal disruptions and enhances grid reliability.

At its core, Teleprotection Carrier Service is a robust telecommunication solution that bridges communication between power system protection systems, facilitating the coordination of line protection relays.

How It Works

Acronym’s Teleprotection Carrier Service is a Point-to-Point Digital Telecommunications Channel (DTC) that links customer sites with transformer stations and/or any other relevant locations. The service is an integral part of the total protection system, leveraging advanced telecommunications to optimize Teleprotection applications, as well as enhancing safety, efficiency, and reliability.

Key Features and Benefits

Flexible Access Options

Supports both wired and wireless network connections
Accessible to diverse media, including dark fibre, optical wavelength services, and licensed wireless microwave frequency
Built-in redundancy and high availability with diverse media options to ensure uninterrupted critical operations

Fully Managed Service

End-to-end service, including design, deployment, and installation of telecommunications infrastructure.
Proactive management, monitoring, troubleshooting, and 24/7/365 support, ensuring maximum uptime and operational peace of mind.

Resilient and Reliable Connectivity

Dedicated point-to-point connections with predefined physical paths
Fully redundant options (where available) for fault tolerant performance

Future-Ready Technology

Supports fibre optic media for stable and secure connectivity
Designed to accommodate evolving industry requirements and technologies

Expertise in Power Systems Telecommunications Services

As a wholly owned subsidiary of Hydro One Limited, Acronym Solutions has a proven history of delivering a wide range of telecommunications solutions for power systems
Backed by Ontario’s largest electricity transmission and distribution network

Industry-Leading Service Level Agreements (SLAs)

With credit-backed guarantees for availability

24/7/365 Support Desk

Around-the-clock technical assistance and rapid response to critical needs

Technical Specifications

Category	Description
Equipment	RFL IMUX or GE JMUX Multiplexers
Interface Protocol	T1/DS1 or DS0
Access Technology	Dedicated Fibre, Optical Wavelengths, Licensed Digital Microwave Radio

Service Level Agreement (SLA)

Parameter	Specification
Network Availability	99.99% (Protected) 99.7% (Unprotected)
Mean Time to Repair	4 Hours
Support	24/7/365

Complete Teleprotection Communication Solution

Acronym Solutions offers a complete and reliable Teleprotection Carrier Service tailored to the evolving needs of the power and utility sector.

About Acronym

Get our latest industry insights right in your inbox

The CIO’s Guide to AI in IT

Florin Soltan — Thu, 19 Feb 2026 03:17:18 +0000

ARTICLE

The CIO’s Guide to AI in IT

Florin Soltan

Florin is a Cyber Security Product Manager at Acronym, where he leads the Cyber security portfolio and manages hardware resale technologies. His portfolio includes a comprehensive suite of managed cyber security services and solutions—ranging from threat detection and response to secure access and endpoint protection. Florin helps organizations protect against digital threats by developing and implementing robust security strategies that safeguard sensitive data and infrastructure while ensuring business continuity and regulatory compliance.

AI in IT is no longer a future consideration; it’s a present-day imperative. It’s time for Canadian CIOs to start planning, scaling, and taking action to ramp up for AI in IT. From infrastructure, to applications, to security, to the cloud, there is much to do in preparation for AI as the new reality impacts Canada’s business conditions.

A Canadian Survey, in the second quarter of 2025, reported 12.2% of businesses using AI to produce goods or deliver services over the last 12 months, up from 6.1% in the same period a year earlier.

Key Takeaways

AI Has Shifted from Experiment to Infrastructure: AI is no longer a bolt-on capability or isolated pilot. It is becoming foundational to IT architecture, influencing cloud design, edge computing, automation, and application development. CIOs must redesign environments to support real-time, data-intensive, AI-driven operations rather than relying on legacy, centralized systems.
Traditional IT Architectures Can’t Support Modern AI Demands: High-volume data streams, distributed environments, and intelligent automation require low-latency infrastructure, modern data pipelines, observability, and zero-trust security. Cloud-native and multi-cloud strategies are quickly becoming table stakes for scalable AI adoption.
AI Maturity Determines Investment Priorities: Organizations typically move through four stages—Awareness, Operational, Systemic, and Transformational. Knowing your maturity level helps prioritize infrastructure upgrades, governance models, talent acquisition, and risk management strategies. Many Canadian businesses remain in early adoption stages, signaling both a readiness gap and a competitive opportunity.
Data Quality, Governance, and Talent Are Make-or-Break Factors: AI success depends less on models and more on clean, observable data pipelines, structured workflows, human oversight, and defined IT roles. Over-automation without governance can erode trust and create operational blind spots. Sustainable AI requires structured change management and ongoing skills development.
The Future Is AI-Native and Autonomous (AIOps): By 2026, many large enterprises are expected to adopt Artificial Intelligence for IT Operations (AIOps), shifting from reactive IT management to self-diagnosing, self-healing systems. Future-ready IT environments will be resilient, secure by design, distributed, and built on evolving architectures that treat AI as a core capability rather than a feature.

A Pivotal Moment

What happens when AI stops being a feature and becomes the backbone of IT? That pivotal moment has arrived. CIOs are now being asked to reimagine IT environments where AI, edge computing, and cloud resources are no longer optional, but foundational, for faster innovation cycles, smarter automation, and next-generation infrastructure.

No matter where you are on your AI in IT journey, this guide provides valuable insights and frameworks to:

Launch new enterprise AI initiatives from the start
Expand existing AI capabilities to enhance maturity
Stay abreast of emerging AI innovation to maintain a competitive advantage

Why Traditional IT Strategies Are Falling Behind

The IT strategies of the past—once sufficient for pilot AI projects or isolated AI use cases—no longer meet the needs of Canadian companies striving to keep pace with rapidly changing technology.

Consider the retail CIO deploying store-level analytics and having to wait for cloud roundtrips when 50 cameras are streaming concurrently. Traditional IT architectures were not designed for real-time, data-intensive, AI-driven operations—and CIOs are now feeling that gap.

Growing AI challenges for Canadian CIOs

As AI spreads across Canada’s business landscape, CIO challenges are surging due to:

Increasingly complex workloads
Widely distributed data ecosystems
Rising expectations for more intelligent automation (e.g. hyper-automation)

Next-generation AI solutions

Requirements for AI deployment in Canada are evolving rapidly, pushing CIOs beyond legacy applications, centralized architectures, and reactive operating models. To succeed, organizations must adopt modern IT infrastructure, supported by strong governance, skilled talent, and clear alignment to business outcomes.

IT Modernization: AI Strategies for CIOs

Many industries are modernizing IT in unprecedented ways to optimize everyday business processes and procedures via AI. Here are some industry-specific examples of how the power of AI is being harnessed:

Healthcare – edge computing for clinical devices
Financial Services – embedding AI in risk engines
Manufacturing – sensor-driven predictive maintenance
Retail – using AI to generate decentralized analytics

The CIO’s mandate in the age of AI

In the AI era, CIOs are no longer system custodians—they are architects of intelligent automation. The following AI enhancements are taking IT to a new level of transformation:

Cloud-native applications, built-in AI features
Multi-cloud provider integration
Diverse workload patterns
Deep learning/machine learning
Predictive modeling & analysis
Generative AI services

While the possibilities of high-performance infrastructure and complex computing power are endless, they demand more time, expertise, and resources to support; either in-house or outsourced to a managed services company, like Acronym.

To navigate this shift effectively, CIOs need a clear way to assess where their organization stands today—and what capabilities must come next.

AI maturity model

What’s your AI maturity level today? Organizations typically progress through defined stages of AI adoption—from early experimentation to enterprise-wide, AI-native operations. Understanding where you sit on this spectrum helps CIOs prioritize investments, manage risk, and plan a realistic path to scale.

While terminology varies, AI maturity typically progresses across stages such as:

Awareness & Active – AI pilots and isolated use cases
Operational – AI embedded into specific workflows
Systemic – AI deployed across business units with governance
Transformational – AI embedded across platforms, processes, and decision-making

Adapted from Gartner AI maturity frameworks

AI readiness: Canada’s AI adoption gap

According to Statistics Canada, as of Q3 2025, 14.5% of Canadian businesses – across all sizes and sectors – plan to adopt AI in the next 12 months, up from 10.6% a year earlier. While adoption is steadily rising, the majority of Canadian organizations are still in the early stages of exploring AI capabilities. In fact, almost two-thirds report no immediate plans to use AI, underscoring a broad market readiness gap.

This data reflects the reality that AI maturity in Canada remains uneven, with many small and mid-sized businesses still building foundational digital capabilities. Closing this readiness gap will be critical for Canada’s competitiveness as AI becomes embedded into everyday business operations.

Common AI Pitfalls for CIOs (And How to Avoid Them)

IT organizations are vulnerable to common, yet avoidable, pitfalls on their AI journey.

One major misstep is under-investing in data quality and observability—without reliable, well-monitored data pipelines, the most sophisticated AI models can produce misleading or unstable results.

Another risk is over-automating processes without establishing clear workflows or maintaining human oversight, which can lead to operational blind spots and erode trust in AI systems.

A successful AI plan hinges on:

Hiring the right talent with the right AI experience
Providing AI training programs to develop new skills
Defining precise IT roles that match AI’s growing requirements
Designing effective organizational structures for sustainable, ethical AI practices

Finally, robust change management is essential to ensure AI in IT initiatives deliver lasting value across the enterprise. This can take the form of playbooks, transparent communication, and incentives to engage teams and reduce resistance.

What a Future-Ready, AI-Optimized IT Environment Looks Like

Resilient. Secure. AI-Native.

Future-ready is a buzzword we all hear in the halls of IT. But what does it mean for CIOs? It’s all about building adaptable systems that are resilient, secure, and AI-native – a term that refers to architectures designed from the ground up to integrate and leverage AI across applications, workflows, and operations. AI-native environments don’t just use AI; they treat it as a foundational capability, enabling automation, intelligence, and real-time decision-making throughout the technology stack.

Looking ahead…

Modern software apps will be distributed—making them more scalable and resilient.
Security won’t be an afterthought—it will be “baked in,” with continuous verification ensuring systems stay protected in real time.
AI-first operating practices will be the norm—embedded directly into DevOps and software development to accelerate innovation and automate intelligently.

And perhaps most importantly, future-ready IT will be built on a living architecture—one that evolves alongside AI-powered tools and agents, adapting to new demands and potential as technology advances.

What’s coming in 2026—Artificial Intelligence for IT Operations (AIOps)

The next year is on track to accelerate the shift toward autonomous IT operations that can self-diagnose, self-heal, and optimize performance without human intervention. Unlike broad AI adoption metrics across the general business landscape, AIOps reflects advanced, enterprise-level AI maturity.

According to Gartner’s article, Autonomous IT Operations 2026: 5 Must-Have AIOps Capabilities, over 60% of large enterprises globally will have moved toward self-healing systems powered by AIOps by 2026. This trend highlights how large organizations, especially those with sophisticated IT environments, are progressing rapidly into higher-level AI operations, even as broader market adoption remains uneven.

For CIOs, this signals a shift from reactive IT management to intelligent, self-optimizing operations that reduce operational friction and free teams to focus on higher-value innovation.

From Strategy to Action: An AI Checklist for CIOs

CIOs wanting to lead with confidence in the AI era need a focused checklist, like the one below, to turn strategy into actionable steps for implementing AI in IT.

AI in IT: CIO Action Checklist

✓ Start by auditing your IT infrastructure for AI readiness—this means evaluating compute capacity, data flow, and latency constraints.

✓ Next, take a fresh look at your cloud services, edge footprint, and SD-WAN posture to ensure they accommodate emerging AI workload demands.

✓ Prioritize closing gaps across data, model, and runtime layers to protect your AI ecosystem end-to-end as security remains paramount, especially in the cloud.

✓ Identify two high-value AI applications that can deliver quick wins and demonstrate tangible impact.

✓ Define an AI partner strategy that enables you to scale intelligently, tapping into external expertise and
platforms that complement your internal IT capabilities.

Acronym Solutions: Enabling the AI-Ready Enterprise

Acronym Solutions empowers the AI-ready enterprise by taking a future-proof approach to modernize IT infrastructure and service delivery.

Our secure connectivity solutions—including managed SD-WAN services—are engineered for low-latency workloads at the edge, ensuring seamless performance across distributed environments.

Our upgraded digital platforms provide resilient, scalable services that support dynamic AI applications and hybrid deployments.

Our comprehensive Managed IT and Secure IT offerings deliver end-to-end AI operations, governance, and security agents “as a service,” simplifying complexity while strengthening reliability.

Putting AI in IT: A pragmatic, three-phase view of AI adoption

Organizations often approach AI adoption in phases as they move from exploration to broader operational use. While every journey is different, a simple three-phase view can help CIOs think through how AI fits into their IT strategy today, and what comes next.

Phase 1: Assessment

Early efforts typically focus on understanding current capabilities, constraints, and opportunities. This includes evaluating where AI may help address specific IT or business challenges, the readiness of data and platforms, and the skills required to move forward. Rather than producing a formal roadmap, this phase helps leaders develop a realistic perspective on what AI adoption could look like within their unique context.

Phase 2: Pilot

Many organizations start with targeted pilots – often within a specific team, process, or application – to explore potential value and uncover technical or operational considerations. These initiatives help validate assumptions, surface integration challenges, and inform future decisions without committing to large-scale change too early.

Phase 3: Implementation and Expansion

As confidence grows, AI capabilities may be introduced more broadly across systems, workflows, or environments. This can include embedding AI into existing platforms, evolving infrastructure and cloud architecture, and establishing the governance needed to support reliable, repeatable use of AI over time.

Acronym supports clients at various points along this journey, bringing experience across IT modernization, cloud, data platforms, and operational enablement. Our role is to help organizations move forward thoughtfully grounded in their priorities, technical realities, and pace of change.

Learn how we can help you create an AI-ready enterprise.

www.acronymsolutions.com

FAQ's

Q: How should CIOs adapt to AI-driven business models?

Latency, Jitter, and Packet Loss: The 3 Metrics That Define Connectivity Performance for Enterprises

Zia Shahid — Wed, 11 Feb 2026 03:45:54 +0000

ARTICLE

Latency, Jitter, and Packet Loss: The 3 Metrics That Define Connectivity Performance for Enterprises

Zia Shahid

Zia is Acronym’s Product Manager for Internet & Connectivity, heading the full portfolio that powers scalable, high-performance connectivity solutions. He oversees a suite of offerings—including dedicated Internet, and network connectivity options like MPLS, Ethernet, dark fibre, wavelength, and tower attachments. Focused on both enterprise and wholesale segments, Zia ensures resilient and secure infrastructure by steering initiatives that blend fault-tolerant multi-layer architecture, and real-time monitoring. His leadership is instrumental in empowering businesses to grow, mission-critical operations with always-on, optimized connectivity.

This article explains why internet speed alone is not enough to ensure reliable business connectivity. While bandwidth measures how much data can be transmitted, real-world performance is defined by three critical metrics: latency, jitter, and packet loss. Latency determines how quickly data begins moving, jitter measures how consistently it arrives, and packet loss indicates whether data arrives at all. Together, these metrics directly affect video calls, VoIP, cloud applications, VPNs, and customer-facing systems. The article breaks down what each metric means, what good performance looks like, how problems show up in daily operations, and why leadership teams should care. It concludes by outlining what enterprises should evaluate beyond Mbps when choosing internet services, emphasizing consistency, reliability, and SLA-backed performance.

Key Takeaways

Bandwidth is only the “width” of the pipe, not the quality of the flow. While speed (Mbps/Gbps) determines how much data you can move, it doesn’t guarantee a good experience. High speeds can still result in choppy calls and lag if the underlying performance metrics—Latency, Jitter, and Packet Loss—are poor.
Latency and Jitter are the primary “silent killers” of real-time collaboration. Latency is the constant delay (the “lag”), while Jitter is the unpredictability of that delay. For modern businesses relying on Zoom, Teams, or VoIP, high levels of either make communication nearly impossible, leading to “robotic” voices and frozen video.
Packet Loss is a non-negotiable metric for reliability. Even a tiny amount of packet loss (over 1%) can cause noticeable issues, such as dropped calls or failing VPNs. Unlike general web surfing where a lost “packet” might just mean a slightly slower page load, real-time business data often cannot be resent fast enough to prevent a total connection failure.
Poor connectivity is a direct threat to revenue and productivity. Enterprise-grade internet isn’t just an IT concern; it impacts the bottom line. Unstable connections increase employee frustration, slow down CRM and cloud-based workflows, and create an unprofessional experience for customers during sales or support calls.

When business leaders shop for internet service, the conversation often starts with speed: “How fast is it?”

But speed, usually measured in Mbps or Gbps, is only part of the story. Two internet connections can offer the same download and upload speeds and still deliver completely different user experiences. One might feel instant and reliable, while the other creates choppy video calls, sluggish cloud apps, and frustrating “Can you hear me now?” moments.

The difference comes down to three performance metrics that matter just as much as bandwidth:

Latency
Jitter
Packet loss

These three measurements help explain why a connection can look strong on paper, yet still struggle in real-world business use.

What Is Latency?

Latency is the time it takes for data to travel from one point to another.

Think of latency as delay. It’s often measured in milliseconds (ms), and it affects how “responsive” your internet feels.

A simple way to picture it

Latency is the time between an action and the response. For example, it could be the delay between clicking “Send” and the other person receiving your message, or the pause between speaking on a video call and being heard.

Why latency matters for business

Latency is especially important for applications that require real-time interaction, including:

Video conferencing
VoIP phone systems
Remote desktop sessions
Cloud-based point-of-sale systems
Live CRM usage during customer calls
Online transactions and payment processing

High latency doesn’t always stop something from working, but it makes everything feel slower and less reliable.

What latency feels like in real life

If your business connection has high latency, you might notice:

A delay between speaking and hearing responses on calls
Web pages that stall before loading
Cloud apps that feel sluggish even with strong bandwidth
Slow response times in remote desktops or virtual environments

What’s considered “good” latency?

In general, lower latency (or ultra-low latency) is better, especially for real-time business communication. The closer you are to “instant,” the smoother everything feels.

Here’s a practical range to use as a benchmark:

0–20 ms: Excellent (ideal for real-time communication)
20–60 ms: Very good (works well for most business applications)
60–100 ms: Usable, but delay becomes noticeable—especially on voice/video calls
100+ ms: Often disruptive for real-time tools and collaboration

What Is Jitter?

Jitter is the variation in latency over time.

In other words: latency that changes from moment to moment.

Even if your average latency is reasonable, jitter can cause inconsistent performance—and inconsistency is what makes business communication tools feel unstable.

A simple way to picture it

Imagine a delivery truck bringing packages from your office to a customer:

With low jitter, deliveries arrive every 10 minutes.
With high jitter, deliveries might arrive in 2 minutes… then 25… then 7… then 40.

The average might be “fine,” but the unpredictability creates problems.

Why jitter matters for business

Jitter is a major factor in the quality of:

Video conferencing
VoIP phone calls
Remote collaboration tools that require real-time updates

These applications don’t just need data to arrive quickly—they need it to arrive consistently.

What jitter feels like in real life

High jitter can cause:

Voices that sound robotic or distorted
Video that freezes or becomes pixelated
Audio cutting in and out
Meetings where participants talk over each other due to timing delays

Even when your speed test looks “good,” jitter can quietly sabotage the user experience.

What’s considered “good” jitter?

Jitter measures how much your latency fluctuates. Lower jitter means steadier performance; higher jitter means more disruption for real-time apps.

The targets below reflect typical variation over short time frames, but they are not a guarantee for every packet.

0–10 ms: Excellent stability. Latency stays consistent enough that voice and video typically sound clear and natural.

10–20 ms: Still strong performance for most business use. Minor variation may exist, but it’s usually not disruptive.

20–30 ms: The connection is becoming inconsistent. Users may begin noticing occasional audio glitches, video hiccups, or awkward talk-over moments.

30+ ms: High jitter. Delay changes enough that real-time communication often becomes unreliable, even if bandwidth is high.

In practical terms, consistently low jitter helps calls and meetings stay smooth, even during peak usage.

What Is Packet Loss?

Packet loss happens when pieces of data (packets) don’t make it to their destination.

The internet sends information in small chunks called packets. When some of them get dropped along the way, that’s packet loss.

Packet loss is measured as a percentage.

A simple way to picture it

Packet loss is like sending a 10-page document through the mail, but pages 3 and 7 never arrive.

Sometimes the system can resend missing packets, but that takes time and creates delays. Other times (especially with real-time voice/video), the data can’t be resent fast enough, so quality suffers.

Why packet loss matters for business

Packet loss impacts nearly every business-critical function, including:

VoIP call clarity
Video meeting stability
Cloud application performance
File transfers and backups
VPN reliability
Customer-facing web apps and portals

Even small packet loss can cause major disruptions because it forces retransmissions, increases delay, and breaks real-time streams.

What packet loss feels like in real life

Packet loss may show up as:

Audio dropping out mid-sentence
Video calls disconnecting or failing to join
Web apps timing out or “spinning”
Slow uploads or incomplete file transfers
VPN sessions randomly disconnecting

What’s considered “good” packet loss?

For business-grade performance:

0%: Ideal
0–1%: Usually acceptable for most applications
1–2.5%: Can cause noticeable voice/video issues
2.5%+ : Often disruptive and unacceptable for real-time workloads

How These Metrics Work Together (and Why Speed Alone Isn’t Enough)

It’s possible to have a fast connection that still performs poorly.

Here’s why:

Bandwidth (speed) determines how much data you can move.
Latency determines how quickly data starts moving.
Jitter determines how stable that movement is.
Packet loss determines whether the data arrives at all.

A quick way to visualize internet performance

Think of your internet connection like a highway system:

Bandwidth = number of lanes
Latency = how long it takes to drive from Point A to Point B
Jitter = traffic unpredictability and stop-and-go conditions
Packet loss = accidents that force cars to exit and reroute

Adding lanes helps, but it doesn’t fix traffic jams, detours, or missing deliveries.

What Causes Latency, Jitter, and Packet Loss?

These issues don’t happen randomly—there are common root causes.

Network congestion: When too many users or devices share the same connection, performance becomes inconsistent.
Wi-Fi limitations: Wi-Fi is convenient, but it’s more vulnerable to interference and signal degradation than wired connections, especially in busy offices.
Distance and routing: The farther your traffic must travel (and the more “hops” it takes), the higher latency tends to be.
Underpowered or misconfigured equipment: Older routers, overloaded firewalls, or poorly configured network settings can create bottlenecks, especially if real-time traffic isn’t prioritized over large downloads and background updates.
Line quality or infrastructure issues: Damaged cabling, poor-quality last-mile infrastructure, or unstable service delivery can lead to packet loss and jitter.

Why You Should Care (Even If You’re Not in IT)

If you’re evaluating business internet, these metrics directly affect outcomes that leadership teams care about:

Productivity – Laggy systems slow down employees, especially teams using cloud platforms all day.

Customer experience – Choppy calls and delayed responses make your business sound unprofessional, even if your team is doing everything right.

Revenue and operations – If your internet affects payment processing, CRM access, or dispatch workflows, performance issues quickly become financial issues.

IT workload and risk – Unstable connectivity increases troubleshooting time, escalations, and pressure on internal teams.

What to Look for in Enterprise-level Internet (Beyond Mbps)

When comparing providers or service options, ask about:

Performance targets for latency, jitter, and packet loss
SLA-backed reliability and uptime commitments
Symmetrical speeds (especially for cloud-first businesses)
Scalability for multi-site operations
Proactive monitoring and enterprise-grade support
Network design that prioritizes real-time traffic

If your business relies on voice, video, cloud apps, or customer-facing tools, performance consistency matters just as much as raw speed.

The Bottom Line

Latency, jitter, and packet loss are the “hidden” metrics that determine whether your business internet feels reliable, or becomes a daily source of frustration.

To recap:

Latency = how fast data travels (delay)
Jitter = how consistent that delay is (stability)
Packet loss = whether data arrives at all (reliability)

Understanding these metrics helps you make smarter decisions when purchasing business internet, especially for modern workplaces that depend on cloud applications, video meetings, and real-time communication.

If you’d like help evaluating business internet options based on the applications your teams rely on most, so performance stays consistent as your organization grows.

FAQ's

Q: What is the difference between latency and jitter?

SD-WAN vs MPLS: Which Is Right for Your Business?

Jeff Farley — Wed, 11 Feb 2026 02:57:10 +0000

ARTICLE

SD-WAN vs MPLS: Which Is Right for Your Business?

Jeff Farley

As businesses grow and their networks stretch across offices, data centres, and remote teams, wide-area networking becomes a make-or-break factor in performance. For years, MPLS (Multiprotocol Label Switching) was the default choice: stable, predictable, and reliable. But with the rise of cloud applications, hybrid work, and ever-increasing bandwidth demands, SD-WAN (Software-Defined WAN) has emerged as a potential alternative.
While each connectivity model offers unique strengths depending on performance, cost, and cloud-readiness priorities, choosing between SD-WAN vs MPLS is a strategic decision. This article breaks down the strengths and limitations of each approach so IT leaders can make an informed choice.

Key Takeaways

MPLS (Multiprotocol Label Switching): Offers predictable performance and guaranteed reliability for mission-critical applications.
SD-WAN (Software-Defined WAN): Provides agility, cloud-readiness, and integrated security for distributed, cloud-first environments.
Decision factors: Cost, performance, scalability, and security requirements should all influence whether you choose SD-WAN vs MPLS.
How Acronym can help: We support SD-WAN solutions and can work with MPLS-based architectures where appropriate as part of custom connectivity designs.

Quick Overview: What Is MPLS? What Is SD-WAN?

When comparing SD-WAN vs MPLS, it helps to start with the basics.

What is MPLS?

MPLS (Multiprotocol Label Switching) is a private, carrier-managed network technology that directs network traffic along predetermined, high-performance routes. It delivers consistent reliability and low latency, making it well-suited for mission-critical applications.

What is SD-WAN?

SD-WAN (Software-Defined Wide Area Network) is a virtualized overlay that uses software to intelligently route traffic across multiple connection types, including broadband, LTE, and MPLS. It offers centralized control, real-time optimization, and integrated security capabilities – with additional advanced security features available depending on the platform – making it ideal for cloud and hybrid work environments. Explore Acronym’s SD-WAN services to see how it works in practice.

SD-WAN vs MPLS: Feature-by-Feature Comparison

The choice between SD-WAN and MPLS often comes down to how each handles performance, cost, scalability, and security. Here’s a side-by-side of SD-WAN and MPLS pros and cons and network performance comparison:

Feature	MPLS	SD-WAN
Performance	Consistent, predictable performance with dedicated private paths.	Adaptive performance that automatically routes traffic over the best available link.
Costs	Higher fixed costs tied to private circuits and service-level guarantees.	Variable operational costs leveraging public internet connections and centralized management.
Cloud Readiness	Well-suited for private data centre connectivity. Requires additional configuration for cloud traffic.	Designed for cloud and SaaS applications with integrated traffic prioritization and optimization.
Scalability	Scales through additional circuits and provider coordination. Predictable, but slower to expand.	Scales quickly via software configuration across diverse links (broadband, LTE, MPLS).
Security	Traffic is isolated on private networks, providing inherent protection but limited visibility.	Built-in features like encryption, segmentation, and firewalls enhance visibility and control.
Visibility	Limited network visibility, typically monitored through carrier tools.	Centralized dashboards provide granular, real-time performance and security insights.
Deployment Speed	Provisioning new sites can take weeks to months due to carrier involvement.	Software-based rollout enables faster provisioning—often within days or weeks.

It’s clear from this comparison that SD-WAN and MPLS each have distinct advantages, depending on how and where your business operates. The next step is understanding why an organization might choose one over the other, and how those decisions align with performance, cost, and connectivity priorities.

When (and Why) MPLS Still Makes Sense

While many organizations are exploring SD-WAN for its agility and cloud-readiness, MPLS remains a proven and trusted option in specific scenarios. It continues to excel where guaranteed performance, consistency, and control are non-negotiable:

Mission-critical workloads: Real-time applications—like financial trading systems, healthcare imaging, or manufacturing controls—often rely on MPLS for its guaranteed latency and SLAs.
Private, centralized networks: Organizations whose data flows mainly between fixed locations and private data centres can benefit from MPLS’s reliability and predictable routing.
Legacy or compliance-driven systems: Some industries require dedicated, isolated connections to meet regulatory or operational standards that broadband links can’t easily provide.

MPLS does involve trade-offs, including higher provisioning costs and longer deployment times. But for businesses that value deterministic performance and security through isolation, it remains a relevant and strategic choice—especially as part of a broader connectivity mix that might also include SD-WAN.

When SD-WAN Makes Sense (And Why It’s Gaining Momentum)

As networks become more distributed and cloud-reliant, many organizations are exploring SD-WAN as a way to gain greater flexibility and visibility across locations. Rather than replacing MPLS outright, SD-WAN introduces a new level of agility, using software to intelligently manage multiple connection types and optimize performance based on real-time conditions.

Key reasons SD-WAN is gaining ground:

Cloud-optimized performance: Dynamically prioritizes SaaS and cloud application traffic to maintain consistent user experiences across sites.
Security capabilities built into the platform: Most SD-WAN solutions include core security features such as IPSec VPN and network segmentation, with optional advanced capabilities like next-generation firewalls typically available through additional licensing. Acronym’s Secure SD-WAN aligns with this model, offering these capabilities as part of a flexible, security-focused design.
Cost savings: Reduces reliance on expensive private connectivity (e.g. MPLS) by leveraging cost-effective public internet links, while still maintaining performance through intelligent traffic steering.
Deployment flexibility: Can be layered over existing MPLS connections or broadband links, giving organizations more control over how traffic is routed.
Operational efficiency: Reduces manual network management and enables faster scaling, often at a lower total cost of ownership, especially when paired with Managed SD-WAN services that simplify deployment and ongoing support

For many Canadian businesses supporting hybrid work and cloud transformation, SD-WAN helps extend secure, reliable access to users everywhere. Still, MPLS continues to play a vital role where predictable, guaranteed performance is critical. Increasingly, organizations are finding that a combination of the two—SD-WAN for flexibility and MPLS for reliability—delivers the best of both worlds.

Cost Comparison: SD-WAN vs MPLS

Cost is often one of the biggest deciding factors when evaluating WAN architectures, but it’s also one of the most nuanced. MPLS and SD-WAN differ not only in their upfront and recurring expenses but also in how those costs align with performance, scalability, and management priorities.

MPLS:

Involves higher fixed costs tied to private circuits, SLAs, and provider-managed infrastructure.
Pricing typically depends on bandwidth, location, and service-level guarantees.
For organizations where downtime carries a high financial or compliance cost, these predictable expenses can be justified.

SD-WAN:

Uses a wide range of transport options – including broadband, public internet, cellular (LTE/5G), and emerging connectivity such as LEO satellite – to lower ongoing costs and reduce dependence on traditional carrier-managed infrastructure.
Follows an operational expenditure (OpEx) model, making it easier to scale or adjust capacity as needs change.
Savings can be significant for distributed networks, though results vary based on architecture, bandwidth demands and customer site locations.

Ultimately, the most cost-effective approach depends on business priorities. Companies prioritizing deterministic performance and guaranteed uptime may find MPLS worth the investment, while those focused on agility, scalability, and centralized management often see value in SD-WAN, or a hybrid model that leverages both.

Security Considerations: SD-WAN vs MPLS

Security is one of the most important factors when evaluating wide-area network architectures, and both MPLS and SD-WAN address it in different ways. MPLS provides a strong foundation for secure connectivity by keeping traffic isolated from the public internet. Data travels over private circuits managed by the carrier, reducing exposure to external threats. While this model offers dependable protection for sensitive workloads, it generally relies on external tools—such as firewalls or intrusion detection systems—to achieve more advanced threat prevention and visibility.

SD-WAN approaches security from a different angle. Instead of relying solely on private lines, it builds protection directly into the network through features like end-to-end encryption, traffic segmentation, and integrated firewalls. Because SD-WAN is software-defined, it also gives IT teams centralized visibility and control, making it easier to enforce policies, monitor traffic, and respond quickly to potential issues. Many modern SD-WAN platforms support zero-trust frameworks, which verify users and devices continuously—an approach that aligns with the growing shift to hybrid and remote work models.

In practice, many organizations combine both models to strike a balance between isolation and visibility. MPLS provides predictable performance and private transport, while SD-WAN layers on agility, centralized control, and advanced security capabilities. The best fit depends on an organization’s risk profile, compliance requirements, and overall network strategy.

Making the Right Choice: Key Questions to Ask

If you’re weighing SD-WAN vs MPLS, asking the right questions can help clarify your decision:

How critical is guaranteed performance?
If your business runs applications that can’t tolerate latency or downtime—such as voice, trading, or real-time control systems—MPLS still provides the most consistent performance and predictable routing.
How reliant are you on cloud and SaaS applications?
The more your organization depends on cloud platforms like Microsoft 365, Salesforce, or Teams, the more you’ll benefit from SD-WAN’s ability to intelligently route and prioritize traffic to and from the cloud.
Do you need greater visibility and centralized control?
SD-WAN provides analytics and monitoring tools that make it easier to see and manage network activity across all sites, while MPLS tends to rely on provider-managed visibility.
What’s the right balance between cost and stability?
MPLS involves higher fixed costs in exchange for predictable performance. SD-WAN offers a more flexible cost structure that scales with your business, but may depend on internet connection quality.
How important is built-in security and scalability?
SD-WAN solutions often include encryption, segmentation, and zero-trust capabilities out of the box, while MPLS delivers security through isolation and carrier-grade SLAs.

There’s no universal right answer here. Many organizations use both, pairing MPLS for their most critical applications with SD-WAN for everyday connectivity and cloud optimization. The goal is to design a network that delivers the reliability, flexibility, and security your business needs to grow confidently.

The Future of Business Connectivity

As networks evolve to support hybrid work and cloud-based operations, both MPLS and SD-WAN have a role to play. MPLS continues to deliver unmatched reliability for mission-critical workloads, while SD-WAN offers the agility, visibility, and scalability modern organizations need.

For many businesses, the ideal approach blends the two—leveraging MPLS for guaranteed performance and SD-WAN for flexibility and centralized control.

Acronym helps Canadian organizations navigate this choice with confidence, designing secure, high-performance networks that align with each company’s goals. Whether you’re enhancing your existing infrastructure or exploring new possibilities, we can help you find the right path forward. Contact us today to get started >

FAQ's

Q: What is the difference between MPLS and SD-WAN?

LEO Satellite Internet and SD-WAN: Reliable Global Connectivity

Zia Shahid — Wed, 28 Jan 2026 03:34:55 +0000

ARTICLE

LEO Satellite Internet and SD-WAN: Reliable Global Connectivity

Zia Shahid

Enterprises today need network connectivity that reaches everywhere they operate. But terrestrial networks alone can fall short—especially in remote regions, during outages, or when redundancy is limited. Low Earth Orbit (LEO) Satellite Internet bridges those gaps, creating the necessary foundation for high-performance satellite internet with SD-WAN in locations where terrestrial networks are unavailable or impractical.

When combined with SD-WAN, organizations can intelligently route and optimize traffic across satellite and terrestrial links to support resilient, global connectivity where multiple paths are available. Together, these technologies are redefining how businesses stay connected in an increasingly distributed world. This article explores how LEO satellite networks and SD-WAN work together to deliver reliable coverage, overcome legacy limitations, and power the next generation of enterprise connectivity.

Key Takeaways

Speed and Low Latency: LEO satellites orbit between 500 and 2,000 kilometres above Earth, offering significantly lower latency (25–70 milliseconds) compared to traditional GEO satellites (500–700 milliseconds).
Intelligent Traffic Management: SD-WAN acts as a control layer that continuously evaluates real-time conditions—such as latency and packet loss—to automatically route traffic over the best available path.
Enhanced Resilience: By combining LEO and SD-WAN, enterprises ensure that critical applications like video calls and cloud tools remain stable, even in geographically challenging locations or when a single link degrades.
Cost-Effective Expansion: Deploying this combination can be more economical than building physical infrastructure in remote areas, enabling reliable access for field operations like mining, oil and gas, and disaster recovery.

What Are Low Earth Orbit (LEO) Satellites?

LEO, or Low Earth Orbit Satellite, refers to constellations of satellites orbiting between roughly 500 and 2,000 kilometres above the Earth’s surface—much closer than traditional geostationary (GEO) satellites positioned around 36,000 kilometres away. This proximity allows LEO satellites to deliver data with far less delay, resulting in lower latency and faster response times for users on the ground.

That proximity translates into significantly lower latency, typically between 25 and 70 milliseconds (compared to 500-700 milliseconds for GEO satellites), allowing for faster data transmission and smoother performance for real-time applications such as video conferencing, cloud collaboration, or IoT monitoring.

Beyond speed, LEO satellite networks offer several advantages over legacy systems:
Improved bandwidth: Large satellite constellations can handle greater data volumes and support more simultaneous connections.
Wider coverage: With large constellations of low-altitude satellites passing overhead, LEO networks can serve remote and rural regions where fibre and cellular networks have a limited footprint.
Greater resiliency: With multiple satellites in constant motion, service interruptions caused by weather or equipment issues are less likely to impact connectivity.

In Canada, improving access to high-speed internet remains a national priority. Roughly 1.3 million Canadian households and nearly 37% of the world’s population still lack affordable, reliable broadband access. New government-backed initiatives are turning to Low Earth Orbit satellite internet to close that gap, bringing high-speed connectivity to rural and northern regions and paving the way for enterprise-grade satellite access anywhere in the country.

What Is SD-WAN (and Why It Matters)?

Software-Defined Wide Area Networking (SD-WAN) is a software-based approach to managing and optimizing wide-area networks. Instead of relying on fixed, hardware-centric configurations, SD-WAN uses centralized control to direct traffic across multiple connection types—such as fibre, broadband, cellular, or satellite internet access—based on real-time performance.

This flexibility allows enterprises to create smarter, more resilient networks that automatically adjust to conditions like congestion or outages. By decoupling network management from physical hardware, SD-WAN enables faster deployment, simpler administration, and greater visibility into how applications perform across locations.

Key SD-WAN benefits include:

Application-aware routing: Traffic is steered dynamically toward the best available path, improving performance for critical workloads.
Security integration: Encryption, segmentation, and built-in firewalls protect data in transit across every link.
Cost efficiency: Organizations can intelligently balance traffic across multiple connection types to optimize spend while maintaining enterprise-grade reliability.
Support for distributed teams: As workforces and systems become more decentralized, SD-WAN simplifies how global and hybrid networks stay connected.

For enterprises exploring LEO satellite internet or other emerging transport options, SD-WAN acts as the intelligent layer that brings these links together—turning diverse connections into one cohesive, high-performance network.

Why LEO Satellite Internet and SD-WAN Are a Dynamic Duo

Individually, Low Earth Orbit (LEO) satellite Internet and SD-WAN each improve how organizations connect and communicate. But when combined, they create a powerful foundation for resilient global network connectivity that’s faster, more flexible, and more intelligent than ever before.

SD-WAN acts as the control layer that makes the most of satellite internet access. It continuously evaluates real-time network conditions—such as latency, jitter, and packet loss—and automatically selects the best available path across terrestrial and satellite links where multiple transports exist. This means that when multiple connections are available, traffic can be seamlessly rerouted, while SD-WAN optimization techniques help maintain performance even when a single link degrades.

By aggregating bandwidth from multiple sources and prioritizing critical applications, SD-WAN with satellite ensures that video calls, remote monitoring systems, and cloud-based tools remain stable and responsive, even in geographically challenging locations.
The combination of LEO satellite internet and SD-WAN is especially transformative for:

Remote and field operations such as mining, oil and gas, or construction sites.
Disaster recovery and emergency response, where communications must stay online when primary networks fail.
Global enterprises that need consistent, secure access across multiple continents and remote offices.

Together, these technologies close long-standing connectivity gaps, bringing high-speed, low-latency coverage and intelligent routing to the most challenging environments on the planet.

Overcoming Historical Satellite Limitations with SD-WAN

Historically, satellite networks were known for high latency, jitter, and packet loss—issues that made them unsuitable for real-time communication or cloud workloads. Even as LEO satellite internet improved performance, these challenges remained a concern for enterprise IT teams.
SD-WAN helps close that gap. Through dynamic path selection, forward-error correction, and WAN-optimization techniques, it continuously measures link quality and routes traffic over the best available path. The result is smoother application performance, fewer dropped packets, and reliable connectivity that makes LEO satellite internet a practical part of modern enterprise networks.

Business Benefits of LEO and SD-WAN

Combining Low Earth Orbit satellite internet with SD-WAN gives organizations a new level of resilience and flexibility in how they connect their people and systems. The result is a network that performs consistently, whether it’s in a downtown data centre or a remote worksite hundreds of kilometres away.

For enterprises, the key benefits include:

Reliable connectivity for critical operations: SD-WAN’s intelligent routing ensures uptime even when one connection type fails, keeping essential systems online.
Expanded global reach: LEO satellites enable reliable connectivity in locations beyond fibre or cellular range, making it possible to bring remote and previously unreachable sites online.
Improved user experience: Optimized traffic flow reduces latency for cloud applications, voice, and video, boosting productivity across distributed teams.
Cost efficiency: Deploying LEO and SD-WAN together can be more economical than building or maintaining physical network infrastructure in remote areas.

Together, these technologies help enterprises deliver secure, high-performance connectivity wherever work happens – including locations beyond traditional network reach – without the trade-offs that once came with satellite networking.

Real-World Scenarios and Industry Examples

In practice, LEO satellite internet shows up first where terrestrial options are thin across Canada: offshore, in the North, and across remote industrial corridors. In these environments, connectivity is not only about productivity, but also about safety to ensure workers can stay in contact and access help when it matters most. Off the coast of Newfoundland and Labrador, Cenovus piloted LEO connectivity on the SeaRose FPSO, an offshore vessel, so crews could collaborate with on-shore teams in real time. The ability to maintain reliable communications was especially important in a hazardous offshore setting, and the pilot improved video calling and access to cloud tools enough that Cenovus made the setup permanent in its Atlantic region, illustrating how satellite links can stabilize day-to-day workflows in harsh, bandwidth-constrained environments.

Further north, empirical research in two fly-in communities in the Northwest Territories found that early LEO access adoption improved speed, reliability, and cost-effectiveness versus legacy satellites, while also flagging trade-offs like affordability over time, capacity constraints, and limited local technical support. The takeaway for enterprises is similar: performance gains are real, but network design still matters, particularly where reliable communication supports essential services and emergency response, which is why combining LEO satellite internet with intelligent traffic management through SD-WAN is so valuable.

On land, remote industrial operations lean on satellites for safety and uptime. In a northern Canadian coal mine with no cellular coverage, a lone-worker safety program used satellite-connected wearables to maintain real-time monitoring and emergency alerts—evidence that satellite links can support mission-critical telemetry and worker-safety systems where fibre isn’t feasible. And in broader remote-operations scenarios where sites do have a mix of satellite and terrestrial access, SD-WAN can automatically reroute traffic across those links, transforming what used to be a one-off workaround into a dependable, resilient connectivity strategy.

The broader policy context is moving the same direction. Canada’s connectivity plan targets 98% of households by 2026 and 100% by 2030, pushing providers to close gaps with a mix of terrestrial and non-terrestrial access. In parallel, satellite operators and carriers are advancing multi-orbit designs and SD-WAN-style path selection to steer traffic across GEO/MEO/LEO and ground networks for performance and resilience—the exact hybrid fabric enterprises need as they globalize.

Together, these examples show how LEO satellite networks, when paired with SD-WAN, are beginning to reshape what’s possible for industries that operate beyond the reach of fibre or cellular coverage. From energy and mining to transportation, emergency response, and community infrastructure, organizations are discovering that dependable, low-latency satellite connectivity is no longer an experiment, but is quickly becoming a standard part of how remote operations stay connected, safe, and productive.

Looking Ahead: The Future of Enterprise Networking

The future of enterprise connectivity lies in convergence—bringing together terrestrial, wireless, and satellite networks under intelligent management layers like SD-WAN. As partnerships between telecom providers, satellite operators, and cloud platforms expand, organizations will gain access to global coverage, with intelligent optimization delivering seamless performance across available links. The integration of 5G, SD-WAN, and Low Earth Orbit satellite networks points toward a unified model of connectivity that is faster, more adaptive, and always available, wherever business happens.

Build a More Connected Future

For modern enterprises, reliable connectivity anywhere is now the expectation. The combination of LEO satellite internet and SD-WAN delivers on that promise, offering resilient, flexible, and cost-effective access for even the most remote operations. Whether used as a primary network, a redundancy layer, or part of a hybrid strategy, this pairing unlocks new possibilities for business continuity and growth.

Acronym Solutions designs and manages SD-WAN customer networks that incorporate LEO Satellite Internet connectivity, ensuring smooth, reliable operations anywhere in Canada. Learn how we can help you build a secure, future-ready connectivity strategy.

Contact us today to get started >