The countdown to Elevate 2026 is on. Join us in Chicago, London, or Sydney.

Register here

Partners

Docs

LM Academy

LM Community

Platform

Solutions

Pricing

Resources

Company

Platform
  • Infrastructure
  • Cloud & Multi-Cloud
  • Log Management
  • Edwin AI
Solution
  • Automation
  • Tool Consolidation
  • Reduce MTTR
  • Cost Optimization
Industry
  • Healthcare
  • Financial Services
  • Public Sector
  • MSP
Role
  • CIO
  • ITOps
  • CloudOps
  • AIOps
There is no result.
Try it free

14-day access to the full LogicMonitor platform

Explore Platform

One platform, one system for observability, intelligence, and action.

Agentic AIOps

Infrastructure Observability

Cloud Observability

Internet Performance Monitoring

Digital Experience Monitoring

Log Management

3,000+ Integrations

Agentic AIOps Overview

Autonomously detect, diagnose, and resolve issues across your environment.

Meet Edwin AI

Turn fragmented cross-domain event noise into explainable, guided action.

AI Agent

Deploy specialized AI agents to handle investigation across the incident lifecycle.

Event Intelligence

Compress raw alert storms into high-fidelity, prioritized insights.

AI Automation

Execute governed, closed-loop remediation across automation playbooks.

ITOps Context Graph

NEW

Unify topology, telemetry, and changes into an AI-ready context layer.

MCP

NEW

Establish traceable, secure governance boundaries for AI tool integrations.

Infrastructure Observability Overview

Full visibility across your entire hybrid estate to eliminate tool sprawl.

Network Monitoring

Accelerate time to innocence with deep network path and device visibility.

Server Monitoring

Track server health, OS metrics, and resource utilization across environments.

Remote Monitoring

Monitor distributed endpoints, branch networks, and remote facility health.

VM Monitoring

Maximize hypervisor performance and streamline compute capacity planning.

SD-WAN Monitoring

Keep multi-site cloud networks connected with real-time edge visibility.

Database Monitoring

Pinpoint database query bottlenecks to keep business applications fast.

Configuration Monitoring

Minimize change failure rates by tracking device configuration drift.

Storage Monitoring

Track SAN/NAS arrays, IOPS bottlenecks, and storage capacity trends.

Cloud Observability Overview

Multi-cloud and hybrid environments unified into a single operational pane.

Container Monitoring

Automated, real-time visibility for Kubernetes and ephemeral microservices.

AWS Monitoring

Track AWS services, scaling, and costs alongside on-premises data.

Google Cloud Monitoring

Monitor native GCP infrastructure, compute, and serverless resources.

Azure Monitoring

Comprehensive visibility into Azure environments, gateways, and workloads.

AI Monitoring

Track LLM infrastructure, GPU utilization, and AI application stack health.

Oracle Cloud Monitoring

Track OCI native compute, enterprise databases, and cloud storage.

SaaS Monitoring

Validate availability and workforce productivity for critical SaaS apps.

Cloud Cost Optimization

Optimize cloud spend, maintain performance, and control budgets.

Internet Performance Monitoring Overview

Understand performance across the full stack wherever users depend on it.

Internet Health

NEW

Use global vantage points to independently validate internet outages.

Real User Monitoring

NEW

Capture actual customer journeys and frontend performance in real time.

Synthetic Monitoring

NEW

Emulate user transactions and SaaS workflows to catch problems early.

Endpoint Monitoring

NEW

Diagnose remote workforce digital experience across devices and networks.

Digital Experience Monitoring

See every dependency, regardless of ownership or location.

Website Monitoring

Protect revenue journeys with proactive synthetic checks and uptime tracking.

CDN Monitoring

NEW

Audit edge performance and latency variance across your CDN providers.

API Monitoring

NEW

Test endpoints and third-party API reliability for critical app integrations.

Application Performance Monitoring

Connect code execution and traces directly to infrastructure health.

DNS Monitoring

NEW

Speed up time-to-innocence by tracking global nameserver resolution times.

DevOps Lifecycle Monitoring

NEW

Protect release velocity by validating dependencies during deployments.

BGP Monitoring

NEW

Trace global routing changes and path leaks to secure internet reachability.

Log Management Overview

Centralize and correlate log data to resolve incidents before they escalate.

Log Analytics & Intelligence

Correlate contextual log data with metrics to speed up root-cause analysis.

WebPageTest Web Performance

Test, compare, and optimize website speed, Core Web Vitals, and performance across real devices and global locations.

Learn more
Explore Solutions

Proactively manage modern hybrid environments with predictive insights, intelligent automation, and full-stack observability.

By Business Outcome

By Role

By Industry

Professional Services

Autonomous IT

Predictive, autonomous IT built

for resilience.

Automation

Eliminate operational toil with safe, policy-governed remediation workflows.

Modernization and Transformation

Accelerate complex technology transitions while protecting core enterprise resilience.

Cloud Migration

Maintain workload performance throughout migration.

Tool Consolidation

Reduce licensing costs and silos by replacing fragmented monitoring tools.

Cost Optimization

Lower your total cost-to-serve by finding cloud waste and underused resources.

Operational Efficiency

Maximize team capacity by reducing alert storms and shift-handoff friction.

Reduce MTTR

Shorten war-rooms by surfacing topology-aware probable cause in mins.

Network Reachability

NEW

Independently audit external BGP, ISP, and SaaS provider connectivity boundaries.

Edge Deployment Optimization

NEW

Monitor SLOs, compare providers, and validate cloud and edge delivery.

Web Performance Optimization

NEW

Maximize digital checkout conversions by tracking global frontend latency metrics.

Application Resilience

NEW

Safeguard business services against transaction failures and costly downtime.

Workforce Productivity

NEW

Troubleshoot remote hardware and network issues to protect productivity.

CIO

Maximize enterprise resilience and align AI investments to measurable business ROI.

AIOps

Compress cross-domain event noise into explainable, automated ops leverage.

DevOps

Speed up releases by protecting engineering roadmaps from toil.

ITOps

Standardize incident response to reduce alert fatigue and after-hours work.

CloudOps

Unify multi-cloud visibility to optimize costs and track hybrid blast radius.

Healthcare

Protect continuity of care and EHR availability across clinical workflows.

Public Sector

Ensure mission continuity and audit readiness for citizen-facing services.

MSP

Protect service margins and scale ops using multi-tenant, AI-assisted triage.

Retail & E-commerce

Safeguard peak retail campaigns, POS uptime, and digital customer journeys.

Technology

Protect customer trust and engineering velocity with SLA-driven visibility.

Hospitality

Deliver frictionless guest experiences and keep booking engines online.

Education

Maintain always-on student portals, learning platforms, and campus networks.

Manufacturing

Prevent production downtime by unifying IT, OT-adjacent, and edge systems.

Financial Services

Secure transaction trust and meet strict resilience compliance requirements.

Why LogicMonitor?

Discover why leading IT teams trust us to unify hybrid observability and eliminate tool sprawl.

Learn more
Explore Resources

Check out our resource library for IT pros, featuring expert guides, strategies, and insights for smarter, AI-driven operations.

Resources

Upcoming Events

Platform Help

Blog

Insights and advice from the experts on all things observability and AI.

Case Studies

See what real users have to say about the LogicMonitor platform.

Webinars

Live and on-demand learning, all in one place.

IT Guides

Learn from expert guides on the topics that matter most to IT teams.

How We Compare

See how our platform stacks up against other solutions.

CONFERENCE

SWORD Day

September 17, 2026

Geneva

WEBINAR

Incident Management Has Outgrown Its Playbook

September 23, 2026

Online

View all events

Join us at innovation-focused conferences, tech talks, webinars, and other events.

Support Docs

Access product docs, release notes, and support resources.

LM Community

Join the community to learn from peers, ask questions, and connect with experts.

Customer Education

Learn more about our platform through resources and live trainings.

2026 The Year of Autonomous IT

NEW

Discover the trends, benchmarks, and strategies driving the industry shift to Autonomous IT.

Read the report
About LogicMonitor

Our observability platform proactively delivers the insights and automation CIOs need to accelerate innovation.

Leadership

Meet the leaders building the future of observability and AI.

Our Customers

See the proof of how IT teams win with LogicMonitor.

Careers

Find job openings and learn about our employee benefits.

Newsroom

Stay current with our latest mentions, press releases, and events.

Culture

NEW

Join a collaborative, values-driven culture built on innovation and growth.

Security

Purpose-built security for the hybrid observability and AI era.

Contact & Locations

Connect with our experts to explore AI-powered observability solutions.

Sustainability

Our commitment to the environment and the people in it.

The countdown to Elevate 2026 is on. Join us in Chicago, London, or Sydney.

Register here
Try it free

Platform

Explore Platform

One platform, one system for observability, intelligence, and action.

Agentic AIOps

Infrastructure Observability

Cloud Observability

Internet Performance Monitoring

Digital Experience Monitoring

Log Management

3,000+ Integrations

WebPageTest Web Performance

Test, compare, and optimize website speed, Core Web Vitals, and performance across real devices and global locations.

Solutions

Explore Solutions

Proactively manage modern hybrid environments with predictive insights, intelligent automation, and full-stack observability.

By Business Outcome

By Role

By Industry

Professional Services

Why LogicMonitor?

Discover why leading IT teams trust us to unify hybrid observability and eliminate tool sprawl.

Pricing

Resources

Explore Resources

Check out our resource library for IT pros, featuring expert guides, strategies, and insights for smarter, AI-driven operations.

Resources

Upcoming Events

Platform Help

NEW

2026 The Year of Autonomous IT

Discover the trends, benchmarks, and strategies driving the industry shift to Autonomous IT.

Company

About LogicMonitor

Our observability platform proactively delivers the insights and automation CIOs need to accelerate innovation.

Leadership

Meet the leaders building the future of observability and AI.

Careers

Find job openings and learn about our employee benefits.

Culture

NEW

Join a collaborative, values-driven culture built on innovation and growth.

Contact & Locations

Connect with our experts to explore AI-powered observability solutions.

Our Customers

See the proof of how IT teams win with LogicMonitor.

Newsroom

Stay current with our latest mentions, press releases, and events.

Security

Purpose-built security for the hybrid observability and AI era.

Sustainability

Our commitment to the environment and the people in it.

Partners

Docs

LM Academy

LM Community

Agentic AIOps

Agentic AIOps Overview

Autonomously detect, diagnose, and resolve issues across your environment.

Meet Edwin AI

Turn fragmented cross-domain event noise into explainable, guided action.

AI Agent

Deploy specialized AI agents to handle investigation across the incident lifecycle.

Event Intelligence

Compress raw alert storms into high-fidelity, prioritized insights.

AI Automation

Execute governed, closed-loop remediation across automation playbooks.

ITOps Context Graph

NEW

Unify topology, telemetry, and changes into an AI-ready context layer.

MCP

NEW

Establish traceable, secure governance boundaries for AI tool integrations.

Infrastructure Observability

Infrastructure Observability Overview

Full visibility across your entire hybrid estate to eliminate tool sprawl.

Network Monitoring

Accelerate time to innocence with deep network path and device visibility.

Server Monitoring

Track server health, OS metrics, and resource utilization across environments.

Remote Monitoring

Monitor distributed endpoints, branch networks, and remote facility health.

VM Monitoring

Maximize hypervisor performance and streamline compute capacity planning.

SD-WAN Monitoring

Keep multi-site cloud networks connected with real-time edge visibility.

Database Monitoring

Pinpoint database query bottlenecks to keep business applications fast.

Configuration Monitoring

Minimize change failure rates by tracking device configuration drift.

Storage Monitoring

Track SAN/NAS arrays, IOPS bottlenecks, and storage capacity trends.

Cloud Observability

Cloud Observability Overview

Multi-cloud and hybrid environments unified into a single operational pane.

Container Monitoring

Automated, real-time visibility for Kubernetes and ephemeral microservices.

AWS Monitoring

Track AWS services, scaling, and costs alongside on-premises data.

Google Cloud Monitoring

Monitor native GCP infrastructure, compute, and serverless resources.

Azure Monitoring

Comprehensive visibility into Azure environments, gateways, and workloads.

AI Monitoring

Track LLM infrastructure, GPU utilization, and AI application stack health.

Oracle Cloud Monitoring

Track OCI native compute, enterprise databases, and cloud storage.

SaaS Monitoring

Validate availability and workforce productivity for critical SaaS apps.

Cloud Cost Optimization

Optimize cloud spend, maintain performance, and control budgets.

Internet Performance Monitoring

Internet Performance Monitoring Overview

Understand performance across the full stack wherever users depend on it.

Internet Health

NEW

Use global vantage points for independent validation of internet outages.

Real User Monitoring

NEW

Capture actual customer journeys and frontend performance in real time.

Synthetic Monitoring

NEW

Emulate user transactions and SaaS workflows to catch problems early.

Endpoint Monitoring

NEW

Diagnose remote workforce digital experience across devices and networks.

Digital Experience Monitoring

Digital Experience Monitoring

See every dependency, regardless of ownership or location.

Website Monitoring

Protect revenue journeys with proactive synthetic checks and uptime tracking.

CDN Monitoring

NEW

Audit edge performance and latency variance across your CDN providers.

API Monitoring

NEW

Test endpoints and third-party API reliability for critical app integrations.

Application Performance Monitoring

Connect code execution and traces directly to infrastructure health.

DNS Monitoring

NEW

Speed up time to innocence by tracking global nameserver resolution times.

DevOps Lifecycle Monitoring

NEW

Protect release velocity by validating dependencies during deployments.

BGP Monitoring

NEW

Trace global routing changes and path leaks to secure internet reachability.

Logs

Log Management Overview

Centralize and correlate log data to resolve incidents before they escalate.

Log Analytics & Intelligence

Correlate contextual log data with metrics to speed up root-cause analysis.

By Business Outcome

Autonomous IT

Predictive, autonomous IT built for resilience.

Automation

Eliminate repetitive operational toil with safe, policy-governed remediation workflows.

Modernization and Transformation

Accelerate complex technology transitions while protecting core enterprise resilience.

Cloud Migration

Maintain workload performance throughout migration.

Tool Consolidation

Reduce licensing costs and data silos by replacing fragmented monitoring tools.

Cost Optimization

Lower your total cost-to-serve by finding cloud waste and underused resources.

Operational Efficiency

Maximize team capacity by reducing alert storms and shift-handoff friction.

Reduce MTTR

Shorten war-room by surfacing topology-aware probable cause in mins.

Network Reachability

NEW

Independently audit external BGP, ISP, and SaaS provider connectivity boundaries.

Edge Deployment Optimization

NEW

Monitor SLOs, compare providers, and validate cloud and edge delivery.

Web Performance Optimization

NEW

Maximize digital checkout conversions by tracking global frontend latency metrics.

Application Resilience

NEW

Safeguard business services against transaction failures and costly downtime.

Workforce Productivity

NEW

Troubleshoot remote hardware and network issues to protect productivity.

By Role

CIO

Maximize enterprise resilience and align AI investments to measurable business ROI.

AIOps

Compress cross-domain event noise into explainable, automated ops leverage.

DevOps

Speed up releases by protecting engineering roadmaps from toil.

ITOps

Standardize incident response to reduce alert fatigue and after-hours work.

CloudOps

Unify multi-cloud visibility to optimize costs and track hybrid blast radius.

By Industry

Healthcare

Protect continuity of care and EHR availability across clinical workflows.

Public Sector

Ensure mission continuity and audit readiness for citizen-facing services.

MSP

Protect service margins and scale ops using multi-tenant, AI-assisted triage.

Retail & E-commerce

Safeguard peak retail campaigns, POS uptime, and digital customer journeys.

Technology

Protect customer trust and engineering velocity with SLA-driven visibility.

Hospitality

Deliver frictionless guest experiences and keep booking engines online.

Education

Maintain always-on student portals, learning platforms, and campus networks.

Manufacturing

Prevent production downtime by unifying IT, OT-adjacent, and edge systems.

Financial Services

Secure transaction trust and meet strict operational resilience compliance requirements.

Resources

Blog

Insights and advice from the experts on all things observability and AI.

Case Studies

See what real users have to say about the LogicMonitor platform.

Webinars

Live and on-demand learning, all in one place.

IT Guides

Learn from expert guides on the topics that matter most to IT teams.

How We Compare

See how our platform stacks up against other solutions.

Upcoming Events

CONFERENCE

SWORD Day

September 17, 2026

WEBINAR

Incident Management Has Outgrown Its Playbook

September 23, 2026

View all events

Join us at innovation-focused conferences, tech talks, webinars, and other events.

Platform Help

Support Docs

Access product docs, release notes, and support resources.

LM Community

Join the community to learn from peers, ask questions, and connect with experts.

Customer Education

Learn more about our platform through resources and live trainings.

NETWORK ADMIN GUIDE

SD-WAN vs MPLS

SD-WAN and MPLS serve the same purpose but work differently. Here is a side-by-side technical comparison to help network teams make the right call.

12–17 minutes
April 9, 2026
Denton Chikura

IN THIS DEEP DIVE

CHAPTERS

    NEWSLETTER

    Subscribe to our newsletter

    Get the latest blogs, whitepapers, eGuides, and more straight into your inbox.

    SHARE

    The quick download:

    SD-WAN and MPLS serve different needs. Understanding the trade-offs is essential before migrating or choosing between them.

    • MPLS guarantees QoS and deterministic routing but is expensive and inflexible for cloud-first environments.

    • SD-WAN offers lower cost and greater agility but requires robust monitoring to compensate for variable internet performance.

    • Many enterprises run a hybrid approach, using MPLS for latency-sensitive traffic and SD-WAN for general internet workloads.

    • Define a hybrid WAN blueprint that keeps MPLS for truly latency‑sensitive apps while piloting SD‑WAN at a few sites, and instrument both underlays with synthetic and flow-based monitoring before scaling out.

    This article is meant to help the network administrators faced with a decision to choose between MPLS and SD-WAN to connect remote office or data center locations. We begin with an overview of each before we compare the pros and cons of each service and help you select the technology that is right for your needs and budget. Let us start with some background information. 

    In the second half of the 2010s, “software-defined” architectures led to several major changes in the networking industry. In simple terms, “software-defined” refers to the virtualization and programmatic configuration of network infrastructure, which can greatly improve network performance, agility, and monitoring capabilities.

    Software-defined separates the control plane management of network devices from the data plane (also called underlay) that forwards network traffic. The control plane consists of controllers (the name varies based on the vendor) that have a complete view of the network and can program the underlay network devices.

    Software-defined networking creates a software overlay network that abstracts away the underlying hardware used to transport traffic between endpoints. There are multiple applications for the software-defined technology in the network space:

    • Software-defined networking (SDN) – Used to reduce costs and increase the agility of LAN connectivity by abstracting the hardware layer.
    • Software-defined mobile network (SDMN) – Used to transform mobile networks.
    • Software-defined local area network (SD-LAN) –  Used to enable policy-driven architectures for wired and wi-fi networks.
    • Software-defined data center (SDDC) – Used to allow virtualization of the network, CPU, storage, and security to be provided as a service.
    • Software-defined wide area network (SD-WAN) – Used to reduce the costs and increase the agility of WAN connectivity by abstracting the hardware layer.

    The last technology in the list, SD-WAN, has begun to displace the once-dominant Multi-protocol Label Switching (MPLS) as the go-to WAN connectivity solution for many organizations. However, MPLS is far from a thing of the past, and in some cases, SD-WAN and MPLS can be used in tandem. 

    To help you better understand the modern WAN landscape and decide which solution is right for you, this article explores the pros and cons of MPLS and SD-WAN. But before we get too far, let’s take a high-level look at how the two stack up:

    MPLSSD-WAN
    ReliabilityVery reliable. Dedicated links from carriers. Very reliable. Simple to configure failover and use multiple underlays, including MPLS. 
    SecurityGenerally secure. Links are dedicated/private. Encrypting traffic is still recommended. Generally secure. Some solutions include built-in security features. 
    PerformanceThe most reliable performanceEquivalent performance but with fewer guarantees
    CostExpensive.Less expensive than MPLS for equivalent performance and reliability. 
    Time to deployCan take weeks/months to provision.Software-defined nature and flexibility in underlays make deployment time much faster (often less than one day). 
    Transport independenceMPLS lines are inherently dedicated lines.Complete flexibility in the underlay transport method.
    Application steering policiesLimited flexibility, may need to use additional appliances.Built-in to SD-WAN control plane. 
    AdoptionWidely adopted. Mature technology. Adoption is growing and SD-WAN is becoming common. Not as mature as MPLS.

    What is MPLS?

    MPLS is a routing technique that is based on simple labels and operates “between” Layer 2 and Layer 3 of the OSI (open systems interconnection) Model. 

    To get a better idea of how MPLS works, let’s take a step back and look at how “traditional” routing works. 

    When a packet — which inherently has a source and destination address — traverses a network, routers check their routing tables to see what the next-hop IP is from the destination IP in the packet header. Once it is known, the packet is forwarded to the next-hop router, and the process repeats until the packet reaches its destination.

    MPLS streamlines this process and allows the devices to forward the packets based on the label present on the packet. The label has an associated path through the network which allows better control of the traffic flow. Based on the information found in the MPLS header, different classes of service characteristics can be applied to the traffic identified by the label.

    Because of its performance advantages and the fact MPLS vendors provide private dedicated circuits to route traffic over, MPLS became a popular technology for WAN connectivity beginning in the 1990s. For enterprises looking to provision connectivity between multiple WAN locations at scale, MPLS was the go-to solution. 

    To better conceptualize why MPLS links are considered “private”, take a look at the diagram below. It shows an MPLS network where two customers, A and B, have separate circuits. The red links are isolated to customer A and the blue links are isolated to customer B.

    What Is SD-WAN?

    Software defined wide area network (SD-WAN) is a software-defined approach to WAN connectivity. 

    With SD-WAN, you are given the flexibility to use multiple types of underlying connections: MPLS, broadband, and LTE. SD-WAN then creates a control plane “over the top” of these underlay technologies that abstract away the hardware. This allows for streamlined provisioning, simple failover, and significant operational flexibility. Additionally, application visibility and advanced network performance monitoring give SD-WAN an edge for WAN connectivity compared to other solutions. 

    Problems SD-WAN Solves 

    In the past, the role of the WAN was to allow the users from branches or campuses to access the applications hosted in the data center. For this to happen in a reliable and secure way, MPLS circuits were commissioned from service providers.

    Legacy WAN architectures also consist of Internet circuits which sometimes work in active/backup mode with MPLS circuits. With this kind of architecture, Internet connections are present only in central points of the network, most likely the data centers through which users can access the Internet. 

    However, the rise of cloud-computing and remote work lead to challenges that MPLS could not elegantly nor economically solve. Moreover, the high-costs of MPLS bandwidth at a time when bandwidth consumption was growing rapidly led to demand for reliable alternatives. This is where SD-WAN comes in. 

    The MPLS problems SD-WAN solutions aim to solve include:

    • Poor cloud performance – MPLS was designed with site-to-site connectivity within the same enterprise in mind. Cloud connectivity breaks this paradigm and often requires backhauling of internet-bound traffic that can create performance issues with cloud-based infrastructure such as popular SaaS apps like Office 365, SalesForce, and Google Workspace. As more and more enterprises depend on cloud apps, this problem becomes increasingly  pronounced. 
    • Lack of detailed application visibility and control – Because SD-WAN provides a software overlay to the underlying infrastructure, it provides users with the ability to capture deeper insights on network performance and further optimize traffic with policy-based routing and traffic shaping techniques.  
    • Limited operational agility – Provisioning MPLS circuits can take weeks. Provisioning SD-WAN with public-Internet links can be significantly faster, with provisioning of a single site taking minutes or hours with some vendors. 
    • High costs – MPLS bandwidth is expensive. Public internet bandwidth is cheap. SD-WAN allows users to leverage affordable Internet bandwidth without sacrificing reliability because they can configure failover between multiple links. Additionally, by switching away from MPLS, organizations are no longer paying for dedicated provider circuits and services. 

    How Does SD-WAN Work?

    SD-WAN is a virtual WAN architecture formed by establishing encrypted tunnels between sites. These tunnels form the overlay. 

    While specific implementations vary, each SD-WAN solution includes:

    • Edge devices – These devices are the points between which the overlay tunnels are established. Their name varies by vendor, but they all have the same role: to receive the user traffic in the SD-WAN overlay.
    • Controller devices – These devices are part of the control plane and they must fulfill several roles. The characteristics of the roles can be consolidated in a single box based on the vendor:
      • Management role – The actual management platform that is used to manage the solution in the daily operations which includes configuration, monitoring and troubleshooting.
      • Keeper of routing information role – A role that allows users to distribute routing information in the overlay network (to the edge devices).
      • Onboarding role – When first the edge devices come online, they need to retrieve their configuration. The controller with this role can provide the initial or complete configuration to the edge device.
      • Analytics role – Aggregates the statistics received from the edge devices and provides the ability to export them to third parties or to create dashboards with relevant information that can be used during monitoring or troubleshooting.

    The diagram below shows a standard SD-WAN topology where communication between branches and the data center can happen via MPLS or broadband connections and the branches can access cloud applications directly.

    Every SD-WAN solution has a centralized management from which configuration policies are pushed to the edge devices to accomplish the intended operation of the network. The policies can be applied globally or per device. 

    For instance, the operator might decide that for a certain type of traffic, a specific link must be used if it meets specific requirements in terms of latency, packet loss or other criteria that is available with that SD-WAN solution. This is called dynamic path selection and allows the traffic steering based on the link conditions.

    SD-WAN Benefits

    At this point, some of the upsides of SD-WAN should be clear. To see why it is becoming such a popular choice in the era of cloud connectivity, remote work, and bandwidth-hungry apps, let’s take a closer look at the benefits we have not yet delved into. 

    Reduced WAN Cost

    MPLS circuits are expensive. While MPLS circuits have their place in the WAN, most of them can be decommissioned and replaced with other types of connections: broadband or LTE. The price of MPLS circuits is considerably higher compared to other transport mediums. Further, geographical location can drive the price of MPLS circuits up even more.

    Increased WAN Availability and Bandwidth 

    With SD-WAN, all the underlying transport methods can be used concurrently by load balancing traffic across all the available links. This not only increases the available bandwidth, but also provides high availability and active-active failover capabilities. 

    Faster Cloud Access 

    Many applications used on a daily basis are hosted in the cloud. SD-WAN allows direct internet access at the branch avoiding the traffic to be backhauled to a central location before it can exit to the Internet. Not only is bandwidth saved for other critical applications that can only be accessed in the datacenter, but also you also improve performance by having lower latency.

    Application Visibility and Control

    To control the traffic, you need to know what your traffic is. With SD-WAN, packet inspection enables deep network visibility. Further, the software-defined nature means it is simple to make granular changes to routing policies and optimize traffic based on specific requirements. 

    SD-WAN Use Cases

    Common SD-WAN use cases include:

    • MPLS replacement
      • Secure connection between branches, data centers, and cloud over public and private networks.
    • Direct Internet access
      • Local Internet breakout at branch level.
    • WAN performance optimization
      • Achieved via application aware routing.
      • Quality of Service.
      • Forward Error Correction and Packet Duplication.
      • TCP optimization.
    • Multi-cloud connectivity
      • Allows the connectivity to the cloud applications (IaaS or SaaS) over an optimal path.

    MPLS Pros and Cons

    Now that we’ve explored MPLS and SD-WAN in-depth, let’s take a look at the pros and cons of each WAN connectivity solution. 

    MPLS Pros

    • Reliability – Dedicated MPLS links have a reputation for reliability and are often backed by provider service level agreements (SLAs). Additionally, with built-in high-availability features, in many cases MPLS can quickly restore service in the event an outage occurs (if Fast Rerouting is used, it can be less than 50ms).
    • Security/privacy – Considering that forwarding is done using labels, one of the label stacks of the packet can identify a specific customer/VPN which allows complete segregation of the traffic for multiple customers. The traffic of one customer cannot mix with the traffic of another customer. However, it is important to note that MPLS traffic is not inherently encrypted! More on this in the “MPLS Cons” section below.
    • Performance – Considering that MPLS is a service that is managed by a service provider, it is the job of that entity to guarantee the bandwidth and the quality. Normally,  a service provider will upgrade its network to make sure that the sum of all customer contracted MPLS services does not oversubscribe the network capacity. Additionally, with QoS, customer traffic can be assigned priorities to help ensure reliable delivery of mission-critical traffic (e.g. VoIP calls). 

    MPLS Cons

    • Cost – Considering that SLA is provided for MPLS circuits, the service providers need to make sure that they meet the SLA. That means they cost more. The cost only goes up due to the constant increase of bandwidth demand, so they cannot be used for any kind of large traffic volume. 
    • Security/encryption – While one customer’s traffic is segregated from another customer’s traffic, MPLS traffic is not encrypted. If you completely trust the MPLS carrier, this may not be seen as a problem. However, complete trust isn’t a great security practice and it is often a wise-choice to only use encrypted communications methods even over MPLS links.
    • Time to deploy – MPLS circuits usually take a significant amount of time to provision. In some cases, they are provided to a customer via a third party, which can compound delays.

    SD-WAN Pros and Cons

    Now let’s take a look at the pros and cons of SD-WAN.

    SD-WAN Pros

    • Performance – SD-WAN can take advantage of all the WAN links and load balance the traffic across all of them and at the same time keep the high availability in case of any of the WAN links failure. Further, SD-WAN far outstrips MPLS when it comes to cloud workloads. 
    • Deployment times and operational efficiencies– It is much faster to provision sites using SD-WAN architectures than MPLS-based architectures. Further, SD-WAN makes it easier to quickly connect remote users and devices as needed. 
    • Scalability – New links can be added any time and the traffic will start going over the links immediately.
    • Transport independence – An SD-WAN edge device can have different types of links connected, MPLS, broadband, and LTE.
    • Cost – Any type of links can be used with SD-WAN. Broadband connections are far more cheaper than MPLS circuits. In some parts of the world, broadband circuits are as reliable as the MPLS making the overall value proposition an easy choice from a business perspective.
    • Security – While the SD-WAN overlay can be established over MPLS and Internet, the traffic going over both transport domains can be secured in the same way. Traffic can be inspected and cleaned at branch level without requiring it to be inspected in a central point in the network, usually the data center. 
    • Application specific policies – SD-WAN can detect the user traffic which allows granular routing and security policies to be applied to it. Specific traffic can be inspected and forwarded over a specific WAN interface while other types of traffic can be load balanced across all the WAN links and not inspected.
    • Decentralization – While all the edge devices are managed in a centralized way, the networking and security functionalities can be implemented at branch level. Direct Internet access feature allows the traffic to exit to the Internet directly from the branch and have it inspected locally.

    SD-WAN Cons

    • Vendor dependence – Each SD-WAN solution is unique. Today, there is no standard across the SD-WAN solutions. Although all of them work in similar ways, you can’t take an appliance from one vendor and use it with another vendor.
    • Adoption – MPLS is mature and engineers are very comfortable with it. Although it is rapidly growing in popularity, the adoption of any given SD-WAN solution (remember they vary from vendor to vendor) isn’t as widespread. 
    • Security – Although not applicable for most SD-WAN solutions, some of them are not able to provide integrated security.

    Conclusion: finding the right solution

    So, should you choose SD-WAN or MPLS?

    Frankly, in many cases SD-WAN far outstrips MPLS if you’re starting from scratch. However, while that is true in most cases, it is far from an absolute. 

    There are situations when MPLS is required to ensure business continuity. Some use cases simply need an SLA and can justify the additional MPLS costs to get it. As reliable as the Internet is today, it is still a best effort service. In those cases, it may make sense to stick with MPLS or — even better from an operational standpoint — use it as an underlay for SD-WAN. 

    Remember, there’s never a one-size-fits-all answer. Weigh the pros and cons of each of these popular WAN connectivity solutions, and make the right decision for your business.

    Unified visibility for any WAN architecture.

    LogicMonitor monitors MPLS circuits, SD-WAN tunnels, and hybrid WAN environments in a single platform, so you always know where performance issues originate.

    Schedule a demo

    FAQs

    What is MPLS and how does it differ from SD-WAN?

    MPLS routes traffic using labels rather than IP addresses, enabling guaranteed quality of service. SD-WAN uses commodity internet connections with intelligent traffic steering. MPLS is deterministic and reliable but expensive; SD-WAN is flexible and cost-effective but depends on internet link quality.

    Is SD-WAN replacing MPLS?

    SD-WAN is not universally replacing MPLS. Many enterprises adopt a hybrid approach, keeping MPLS for latency-sensitive applications while using SD-WAN for general internet traffic and cloud access.

    What are the cost differences between SD-WAN and MPLS?

    MPLS typically costs 3–5x more per megabit than equivalent broadband internet connections. SD-WAN uses commodity broadband, which is significantly cheaper, but requires additional SD-WAN licensing and management overhead.

    How do you monitor SD-WAN performance compared to MPLS?

    MPLS monitoring is straightforward, you monitor a stable dedicated circuit. SD-WAN monitoring is more complex because paths change dynamically. You need to monitor each underlay transport link and the overlay tunnel health.

    By Denton Chikura

    Technical Writer

    Denton Chikura is a technical writer and longtime observability advocate focused on helping site reliability engineers and engineering teams discover the tools and capabilities that strengthen internet resilience. He works at the intersection of monitoring, performance, and infrastructure to make complex systems more understandable and usable, bridging the gap between deep technical detail and real‑world operations. His goal is to help teams build faster, detect issues earlier, and recover smarter, ultimately making the internet a better, more reliable place for everyone.

    Disclaimer: The views expressed on this blog are those of the author and do not necessarily reflect the views of LogicMonitor or its affiliates.

    © LogicMonitor 2026 | All rights reserved. | All trademarks, trade names, service marks, and logos referenced herein belong to their respective companies.

    Product

    Platform

    Infrastructure

    Cloud & Multi-Cloud

    Log Management

    Edwin AI

    Enterprise

    Demo

    Pricing

    WebPageTest Pricing

    RUM Monitoring

    IPM Monitoring

    Synthetic Monitoring

    How We Compare

    Datadog

    Dynatrace

    Virtana

    Solarwinds

    PRTG

    ManageEngine

    ScienceLogic

    SiteScope

    BigPanda

    About

    Careers

    Our Partners

    Leadership

    Newsroom

    Security

    AI Governance

    Sustainability

    Legal

    Documentation

    Docs Hub

    Release Notes

    Security

    Support Center

    Resources

    Autonomous IT in 2026

    Resource Library

    LM Academy

    Blog

    Case Studies

    Customer Education

    Connect

    Contact & Locations

    Submit a Ticket

    Events

    LM Community

    Careers


    Product

    Platform

    Infrastructure

    Cloud & Multi-Cloud

    Log Management

    Edwin AI

    Enterprise

    Demo

    Pricing

    WebPageTest Pricing

    RUM Monitoring

    IPM Monitoring

    Synthetic Monitoring


    How We Compare

    Datadog

    Dynatrace

    Virtana

    Zenoss

    Solarwinds

    PRTG

    ManageEngine

    ScienceLogic

    SiteScope

    BigPanda


    About

    Careers

    Our Partners

    Leadership

    Newsroom

    Security

    AI Governance

    Sustainability

    Legal


    Documentation

    Docs Hub

    Release Notes

    Security

    Support Center


    Resources

    Autonomous IT in 2026

    Resource Library

    LM Academy

    Blog

    Case Studies

    Customer Education


    Connect

    Contact & Locations

    Submit a Ticket

    Events

    LM Community

    Careers


    Privacy Policy

    Terms of Use

    Preference Center

    Do Not Sell My Information

    © 2026 LogicMonitor