• By: Allen Brown

8 Best Bare Metal Hosting Providers in 2026

By Hitesh Jethva

A slow database, an overloaded application server, or a growing virtualization cluster can turn infrastructure into a business constraint. Bare metal hosting gives you a physical server dedicated to your organization, with direct access to its processing and memory resources. That control helps when your application needs a specific hardware configuration, or your team wants to run its own virtualization software.

The right choice depends on how your workload uses the machine. A database might need more memory and faster storage. A video platform might spend more on outbound traffic than on the server itself. An IT team supporting a business around the clock might need help with operating system maintenance and incident response.

This guide compares eight bare metal hosting providers for businesses in Ottawa and elsewhere to help you find a service that fits your application, budget, and the people responsible for keeping it running.

Bare Metal Hosting Providers at a Glance


Provider Consider It For Key Decision
Atlantic.Net Configurable servers with managed service options Agree on the hardware and management scope
Rackdog Applications that move substantial amounts of data Check unmetered bandwidth terms and port capacity
OVHcloud Clusters needing substantial private network capacity Match public and private bandwidth to the workload
AWS EC2 Bare Metal Physical servers within an existing AWS environment Include storage and data transfer in the cost
Google Cloud Compute Engine Bare Metal Supported workloads using Google Cloud services Confirm machine type, operating system, and maintenance behavior
IBM Cloud Bare Metal Servers Dedicated hardware with IBM Cloud networking Choose Classic or VPC and check billing behavior
Hivelocity Custom hardware and remotely administered servers Confirm configuration, transfer allowance, and support scope
Latitude.sh Automated deployments and private connectivity Distinguish server networking from separately configured connections

Eight Providers to Consider

1. Atlantic.Net

Atlantic.Net provides configurable and fully customizable USA-based Bare Metal Servers for organizations that want control over their hardware and a choice of management services. This approach suits businesses with established applications, defined capacity requirements, and a clear understanding of who will handle ongoing server administration.

Our published high-performance options include a 64-core AMD EPYC 7702P processor, error-correcting code (ECC) memory options, and NVMe storage. ECC memory helps detect and correct certain memory errors, while NVMe is a storage interface designed for fast access to solid-state drives. The appropriate combination depends on your application’s working data set, storage activity, and processing requirements.

You can use our bare metal server options as a starting point for a configuration discussion. For a database, that discussion should include usable memory, storage capacity after any disk mirroring, and a backup plan. For virtualization, it should cover processor compatibility and each virtual machine’s resource needs.

Managed services can cover agreed tasks such as operating system patching, monitoring, and incident response. Application code and business logic remain your team’s responsibility.

What to check: Request a written configuration and management scope. Confirm the deployment location, network capacity, backup arrangements, and included protection against distributed denial-of-service (DDoS) attacks, with any additional coverage specified in the quote.

2. Rackdog

Rackdog is worth considering when data transfer is a major part of the hosting decision. Its bare metal range combines dedicated hardware with unmetered bandwidth options, making it relevant to media delivery, large file distribution, and services that regularly move data between systems.

One published U.S. configuration pairs a 16-core AMD EPYC 4565P processor with 192GB of memory, two 1.92TB NVMe drives, and a 10Gbps uplink. That is a useful starting point for a workload needing local storage and substantial network capacity, subject to availability in the required location.

Rackdog also offers an application programming interface (API) and Terraform support, a tool for defining infrastructure in code. These tools let a technical team build server provisioning into repeatable deployment processes. Remote management facilities provide another way to administer a machine when normal operating-system access is unavailable.

Unmetered bandwidth still has a defined connection speed and contractual terms. A 10Gbps port describes a capacity limit; your application’s transfer rate also depends on its storage, software, and the network path to users.

What to check: Ask how the selected plan handles sustained traffic, acceptable use, and network incidents. Include the operating system and application support you need when comparing the complete service with other quotes.

3. OVHcloud

OVHcloud’s dedicated server ranges are useful to compare when a deployment includes several machines exchanging substantial amounts of data. Its High Grade range clearly shows why public and private bandwidth need separate attention.

The published HGR-HCI-i1 configuration includes an Intel Xeon Gold 5515+ processor, 256GB of DDR5 ECC memory, and six 3.84TB NVMe drives. The listed networking includes 10Gbps guaranteed unmetered public bandwidth and 50Gbps guaranteed unmetered private bandwidth. Those figures apply to that configuration; other ranges have different specifications.

For a storage or virtualization cluster, the private network can carry replication and server-to-server communication. Public bandwidth serves a different purpose, including connections to customers and external services. OVHcloud’s vRack provides private networking for supported dedicated server ranges, allowing buyers to plan those traffic flows separately.

OVHcloud includes anti-DDoS protection with its dedicated server offering. The appropriate service still depends on the application, the server range, and the support arrangement you choose.

What to check: Verify the exact server reference and data center, then review disk redundancy, usable storage, and support responsibilities. If the workload must survive a server failure, plan replication and recovery across additional machines; a single server specification cannot ensure application availability.

4. AWS EC2 Bare Metal

AWS EC2 Bare Metal is a logical option for an organization already operating in AWS that needs direct access to physical server resources. It lets the workload remain within the organization’s existing AWS networking, identity, and infrastructure processes.

A representative general-purpose option is m7i.metal-48xl, which provides 192 virtual CPUs (vCPUs), 768GiB of memory, and 50Gbps network bandwidth. When comparing vCPU figures with other server catalogs, check the physical core and processing thread counts. This instance uses Amazon Elastic Block Store, or EBS, and has no local instance-storage SSDs, a material distinction when comparing it with a dedicated server containing NVMe drives.

EBS is network-attached block storage. Its capacity and performance need to be selected alongside the compute instance, and its charges belong in the full cost comparison. Other EC2 bare metal families have different hardware and storage characteristics, so the example should not be treated as a description of the entire range.

The strongest reason to shortlist EC2 Bare Metal is a clear need for physical hardware within an AWS architecture. A large instance also needs sufficient sustained work to justify the capacity being purchased.

What to check: Model compute, EBS, data transfer, and support costs together. Validate operating system and software licensing requirements against the exact instance type, and test the application’s storage behavior before committing.

5. Google Cloud Compute Engine Bare Metal

Google Cloud offers native bare metal machine types within Compute Engine. These provide direct access to server processing and memory resources while remaining part of Google Cloud’s infrastructure environment. They matter when an application has hardware requirements and already depends on nearby Google Cloud services.

One established example is c3-standard-192-metal, with 192 vCPUs and 768GB of memory. Before selecting a machine of that size, estimate how much processing and memory your workload will use during normal operations and busy periods.

Storage and operating system support deserve early attention. Compute Engine bare metal uses Hyperdisk for supported network-attached block storage, while some machine series also support local SSDs. Google’s documentation states that bare metal instances do not support Windows images.

Maintenance also affects application design. Bare metal instances do not support live migration, moving a running workload to another host during maintenance. A production deployment needs an appropriate restart and failover plan for its chosen machine type.

What to check: Confirm regional availability, supported images, storage compatibility, and maintenance behavior before designing the deployment. If your application requires Windows or assumes maintenance can occur through live migration, resolve those requirements before selecting this service.

6. IBM Cloud Bare Metal Servers

IBM Cloud provides bare metal through both Classic infrastructure and Virtual Private Cloud, or VPC. These are distinct service models. Classic supports customized hardware configurations and its own networking environment, while VPC uses defined server profiles integrated with IBM Cloud’s VPC networking.

The distinction matters when planning a migration or connecting physical servers to existing IBM Cloud resources. Your preferred hardware and network design should determine which offering enters the shortlist.

For a concrete VPC example, bx3d-metal-48×256 includes 48 vCPUs, 256GiB of memory, two 480GB boot SSDs configured in RAID 1, and 30.72TB of secondary local storage across four drives. RAID 1 mirrors data between the boot drives. Available application-data capacity depends on how you configure the secondary storage and its redundancy.

IBM documents server management through its console, command-line interface, and API. That gives technical teams several ways to incorporate physical servers into operating procedures and automation.

What to check: Compare the selected platform’s networking, hardware availability, and billing terms. IBM’s VPC documentation states that billing continues when you stop a bare metal server. Include that behavior in your capacity plan, and define responsibilities for OS updates, backups, and recovery.

7. Hivelocity

Hivelocity combines dedicated servers, custom configurations, and remote administration tools. Review it when your requirements call for a specific balance of processor performance, memory, storage, and network connectivity.

Its published dedicated server catalog includes a configuration using an AMD Ryzen Threadripper PRO 7965WX processor with 24 cores, 1TB of memory, a 512GB NVMe drive, and two 2TB NVMe drives. The listed plan includes a 20TB transfer allowance on a 10Gbps connection. This illustrates how a server can pair substantial memory with a clearly defined traffic allowance.

Hivelocity provides API access and remote management capabilities for server administration. Custom operating system installation options can also matter when a team needs a specific image or an established deployment process.

The company states that bandwidth-enabled services include protection against volumetric network DDoS attacks. Buyers should still assess application security and the operational response needed during an incident.

What to check: Confirm that the chosen configuration is available where you need it, and identify which traffic counts toward the allowance. A 10Gbps connection with a 20TB allowance has a different billing model from an unmetered plan. Agree on support and hardware replacement arrangements as part of the purchase.

8. Latitude.sh

Latitude.sh combines bare metal servers with deployment automation and connectivity options. Its API and Terraform support make it relevant to teams that want physical servers to fit into a repeatable infrastructure workflow.

The published rs4.metal.large configuration provides an AMD EPYC 9354P processor with 32 cores, 768GB of memory, and two 8TB NVMe drives alongside two 480GB NVMe drives. It lists 2 × 100Gbps network interfaces. Interface capacity needs to be assessed alongside the public and private network services used by the application.

Latitude.sh’s bandwidth documentation provides a useful distinction: each server contributes 20TB of free outbound transfer, pooled across servers in the same project and country. Inbound traffic is unlimited, and outbound usage above the applicable allowance incurs additional charges.

Private networking connects servers within the same location. Megaport connectivity provides another option for private connections, with separate setup and routing requirements. Buyers should confirm the complete design and price when comparing a deployment that uses those services.

What to check: Establish the required location, operating system, transfer budget, and connectivity path. For a deployment spanning several locations, document how traffic travels between them and which services or charges apply to each connection.

How to Choose the Right Bare Metal Host

Start With the Application’s Bottleneck

Measure the system you are trying to improve. Record processor usage, memory demand, storage latency, and network traffic during busy periods. A server with more cores offers limited value if the application waits on storage or relies heavily on a small number of processing threads.

Compare the exact processor model, physical core count, memory capacity, and storage configuration. Providers use both physical core counts and vCPU figures in their catalogs, so confirm what each number represents. Keep GB and GiB units consistent when normalizing quotes.

Test a representative data set and workload where practical. Include busy-period response times and recovery behavior in the evaluation. Bare metal gives you dedicated hardware resources; you still need to establish the performance and economic benefits for your application.

Compare the Complete Monthly Cost

A useful quote includes the server, storage, bandwidth, software licensing, management, backups, and the connectivity your design requires. Ask about setup charges, minimum commitments, renewal terms, and the cost of adding capacity.

Separate network speed from data transfer. Gbps describes how quickly a connection can move data; TB allowances describe how much data a plan includes. Also distinguish public traffic from private traffic between servers.

Storage comparisons need the same care. Record usable capacity after redundancy, expected performance, and backup costs. Local NVMe drives and separately provisioned cloud block storage have different operational and billing characteristics.

Define Management and Recovery Responsibilities

Write down who handles operating system updates, monitoring, security configuration, backups, and incidents. Support availability alone does not define the tasks included in a managed service. Ask which events trigger a response and how urgent problems are escalated.

Plan for a physical server becoming unavailable. Identify how the application will restart elsewhere, how data will be recovered, and the amount of downtime or data loss the business can tolerate. Test restoration procedures and account for the spare capacity or additional servers required by the plan.

Verify Location and Contract Requirements

Check availability for the exact server in the intended data center. A provider’s overall geographic footprint does not establish that every hardware configuration is sold in every location.

For Canadian organizations, document where production data, backups, and replicas will be stored, and compare those locations with your contractual and regulatory requirements. Measure network latency from the places where users actually connect.

Where a workload requires specific compliance arrangements, request the relevant audit documentation and contractual commitments. Review their scope and your own responsibilities with the people accountable for the system. A hosting purchase is one part of that assessment.

Choose the Service You Can Operate Reliably

The most useful bare metal shortlist starts with a defined workload and an operating plan. Hardware, storage, network charges, and management responsibilities should support the same requirements.

Select two or three providers whose documented services fit those requirements. Request comparable configurations, calculate the complete cost, and validate performance and recovery before moving a critical application. That process produces a more defensible decision than choosing from processor counts or advertised connection speeds alone.

If you need configurable infrastructure with help managing the server environment, explore our managed server services. Bring your workload measurements, preferred location, and support requirements so we can discuss an appropriate configuration and a clear division of responsibilities.