Dell PowerEdge R650 10-Bay 2.5"
Configure Your System:
1 Processor Required
Step 1: Choose a tier
Xeon Silver (4300 series) is the value tier: solid dual-socket compute for general duty, with memory running at 2666 MT/s.
Xeon Gold (5300 and 6300 series) is the mainstream of this platform and our default recommendation: more cores, higher clocks, and faster memory support, 2933 MT/s on the 5300s and the full 3200 MT/s on the 6300s.
Xeon Platinum (8300 series) runs up to 40 cores per socket, 80 in one rack unit. The R650 is the density play of this generation, and the high-core parts are how a 1U replaces a shelf of older servers.
One connection worth knowing before you pick: your processor tier sets your memory speed. The DIMMs in the memory step run at whatever your CPU supports, so a Silver chip quietly caps the memory bus you paid for. It is one of the honest arguments for Gold.
Whichever tier you pick, populate both sockets; half the memory channels and PCIe lanes route through the second CPU.
Step 2: Choose your CPU
Running Windows Server? Two 8-core CPUs land exactly on the 16-core base license, and our pick is the Gold 6334 (8 cores, 3.6 GHz): top clocks per core, full 3200 memory speed, nothing wasted on the license.
Virtualizing on vSphere? VMware licenses a 16-core minimum per socket, so the 8-core strategy buys you nothing there; take 16-core parts and use every core you are paying to license.
Most R650s are virtualization hosts, and the middle Golds through high-core parts are where those builds land; a pair of R650s running a modern hypervisor is the classic cluster of this generation.
Not sure where your workload lands? We configure these daily; call 1-800-778-1545.
2 Heat Sink Optional
The standard heatsinks ship with every build and cover the Silver and mainstream Gold range in normal datacenter conditions. If that describes your configuration, there is nothing to add here.
The high-performance fans and heatsinks are the upgrade, offered in versions matched to the Silver and Gold processor tiers, and we spec them in three cases. First, top-TDP silicon: the high-core Golds and Platinums run hot enough in one rack unit that Dell requires the upgraded cooling. Second, NVMe-dense builds: a 1U backplane full of NVMe adds real heat directly in the airflow path. Third, warm environments: intake air above the mid-20s Celsius tightens the thermal math, and 1U chassis have the least margin of any form factor.
If you are unsure which side of the line your build falls on, err toward the upgrade; the cost is small, and in a 1U, cooler components and fans with headroom are the difference between a server that hums and one that howls.
As always: keep every drive blank and shroud installed, because the R650 cools front to back and an open path lets air skip the components that need it.
3 Memory (RAM) 32 DIMM slots, modules added in sets of 2 Required
Two rules shape the buy.
First, your processor sets the speed. Silver CPUs run memory at 2666 MT/s, Gold 5300s at 2933, and Gold 6300s and up at the full 3200. The configurator pairs the right DIMMs with your chip; just know that the memory bus is one of the things you are buying when you step up a CPU tier.
Second, populate channels evenly. Sixteen matched DIMMs, eight per socket, engages every channel once at full bandwidth, and that is our default for this chassis. Memory bandwidth is exactly what a dense virtualization host feels, and sixteen channels of it is the R650's quiet superpower.
Go beyond sixteen when capacity demands it; the platform takes a second DIMM per channel gracefully. Below sixteen, use multiples of eight and keep both sockets even; a lopsided population starves channels you paid for.
Whichever count you choose, buy it as one matched set, now. Hunting for matching DIMMs a year into production means a maintenance window and rank-matching roulette, and a mismatch clocks the whole bank down.
Common landing spots: 128 GB (16x 8 GB) for general duty, 256 GB (16x 16 GB) is our default virtualization host, 512 GB (16x 32 GB) for dense consolidation or database work, and 1 TB (32x 32 GB) when the workload lives in RAM.
4 RAID Controllers Optional
PERC H745 (4 GB cache) is the configurator default and our pick for most builds: a large battery-backed cache, full RAID levels, and throughput that keeps a busy backplane honest.
PERC H755 (8 GB cache) is the step up for write-heavy duty: database volumes and backplanes that stay busy. On a ten-bay build doing real work, the difference shows.
PERC H755N is the specialist: it brings hardware RAID to NVMe drives, which historically ran unprotected or leaned on software. If your build is NVMe-based and you want the array managed in hardware, this is the controller that does it.
PERC H345 is the entry option for boot mirrors and light RAID duty; honest for a SAN-attached host whose local storage is just the OS pair, and not for parity arrays you care about. PERC H355 sits just above it for simple RAID 1/10 duty.
Building vSAN, Storage Spaces Direct, Ceph, or ZFS? Those stacks want direct drive access through an HBA rather than a RAID controller; call 1-800-778-1545 and we will spec the HBA355 for that build. On the R650 this comes up constantly, because a 1U ten-bay NVMe-capable host is a textbook vSAN node.
Array guidance regardless of controller: RAID 10 where write latency matters, RAID 6 over RAID 5 on large spinning drives, and a hot spare on any array whose rebuild you would rather not race.
5 Storage Drives Select up to 10 drives (0/10 Slots Used) Optional
The 2.5" R650 takes the full modern menu: NVMe for the lowest latency, SAS and SATA SSDs for mainstream flash duty, and 10K SAS spinning drives where capacity per dollar still matters. Our guidance by workload: NVMe when storage latency is the product (busy databases, heavy virtualization datastores, vSAN cache tiers), SATA or SAS SSDs for general flash duty where they remain the value play, and spinning drives only for bulk that genuinely does not need speed; a 1U compute node usually wants its hot data local and fast.
Buy new. We steer you away from refurbished on drives specifically, and we say that as a company that sells refurbished servers all day. The chassis, board, and power supplies in a refurbished R650 have proven themselves through our burn-in; a used drive with unknown hours is a different bet, and a rebuild is exactly when you do not want to lose a second one.
Boot the right way: the BOSS card in the Add-Ons step carries a mirrored pair of M.2 drives dedicated to the operating system, keeping every front bay for data and separating a boot failure from a data failure permanently. It is standard practice on this platform and we recommend it on every build.
Fair warning on capacity math: RAID overhead, hot spares, and filesystem headroom mean usable space lands well under the sum of the labels. Size for the usable number, and when in doubt, one drive size up is cheap insurance.
6 Remote Access Required
The dividing line is the remote console. iDRAC9 Enterprise gives you remote KVM and virtual media through a clean HTML5 interface: reach the server's screen, mount an ISO, and rebuild an OS from anywhere, even when the operating system is down. The lower tiers leave you walking to the rack for any problem below the OS.
Enterprise is the configurator default and our pick, and on a production virtualization host the math is short: the license costs a fraction of one emergency site visit, and the first bad firmware day pays for it.
Enterprise also brings the fleet features that matter as you grow: automated firmware updates, telemetry streaming, and secure erase for the day the server retires holding company data.
Skip it only when the server sits down the hall and someone can physically reach it without ceremony, and even then, think about whether that stays true for the machine's whole life.
If you are deploying 5 or more units, take Enterprise on all of them. Fleet management without remote console access does not work in practice.
7 Power Supply 2x included in build Required
2x 600W is the configurator default and covers mainstream builds: Silver or mid-Gold processors, a sensible memory load, and a bay of SSDs land inside it with room to work.
2x 800W is our pick when the build fills out: higher-TDP Gold silicon, a fuller backplane, or a heavy DIMM count. The price step is small and it buys the 50 percent load target, where a PSU runs at peak efficiency, runs cooler, and lasts longer than one working near its limit.
2x 1400W covers the heavy end: top-TDP Gold and Platinum parts or a full NVMe backplane, the builds where a 1U is carrying 2U-class work.
Watch the estimated TDP counter at the bottom of the page as you add components to see where your build lands, and when it sits between two tiers, size up; the price difference is a rounding error against the efficiency and headroom you get back.
8 Network Cards Required
Quad 1 GbE covers file, print, and light application duty, and it is the honest budget answer when the clients are desktops on gigabit switching.
10 Gb is the floor the moment this server hosts a busy hypervisor, shared storage, or backup traffic on a deadline, and most R650s are exactly that server. The dual and quad 10 Gb options, and 25 Gb where the switching exists, match what this platform can actually push; a dense virtualization host bottlenecked at gigabit is a mismatch you feel daily.
Then port type, and this is the one that catches people. SFP+/SFP28 ports take fiber or DAC cables and talk to datacenter-grade switches. BASE-T ports are 10 Gb copper on ordinary RJ45. Neither is better; they must simply match your switch. Order SFP against a copper-only switch and the server racks up with nothing to plug into.
Need more ports, or separate links for storage and VM traffic? PCIe network cards stack on top of whatever you choose here. Call 1-800-778-1545 and we will spec the whole path, switch ports included.
9 Operating System Required
The good news on this platform: the R650 is current enough that every modern OS supports it fully, so the choice is about your environment, not compatibility.
Windows Server 2022 is the mainstream pick, and Windows Server 2025 is fully supported here if you want the newest platform. Licensing is per core with a 16-core base, which is why our processor guidance steers Windows buyers to two 8-core CPUs: the 16-Core license covers that build exactly. Past 16 total cores, you need the larger license tiers, and heavy VM density is where Datacenter edition with unlimited virtualization rights earns its keep. On CALs, count your users and round up.
Fair warning on Evaluation Editions: free and fully functional for 180 days, then they expire. Right for labs and proof-of-concept, wrong for production.
VMware ESXi is fully supported on this platform, and the R650 is the textbook vSphere host of its generation; we will install the version your cluster runs.
Proxmox VE is our quiet favorite for new virtualization deployments: open-source KVM with clustering and live migration, no per-core license math, and a pair of R650s running it is one of the best value clusters money buys today.
Ubuntu Server LTS covers Linux application duty with five years of free updates, and No OS is there for teams imaging from their own deployment infrastructure.
Not sure which fits? Tell us the workload at quote time, or call 1-800-778-1545.
WServer Warranty
Dell PowerEdge R650 10-Bay 2.5" Drives [15th Gen] Detailed Review
The Dell PowerEdge R650 10-Bay 2.5" Hot-Swap is the maximum-density SFF configuration of Dell's 15th gen 1U platform: ten 2.5" hot-plug bays on the Universal Backplane, all NVMe-capable, with dual 3rd Generation Intel Xeon Scalable processors (Ice Lake-SP, socket LGA-4189), up to 32 DDR4-3200 DIMM slots, and PCIe Gen4 throughout. This is the R650 variant for converged compute-plus-storage workloads where the extra two SFF bays over the 8-Bay genuinely change the deployment math: vSAN ESA at ten NVMe per 1U node, Ceph OSD nodes optimizing drives per rack unit, and dense storage-plus-application builds where per-chassis spindle count drives cluster economics.
The platform fundamentals (Ice Lake silicon, the 32-slot memory topology, the PCIe Gen4 budget, BOSS-S2 boot, the Universal Backplane, vSAN ESA certification, and the full R650-versus-R450/R550/R650xs/R750 positioning) are identical across every R650 chassis. The full platform write-up lives on the R650 8-Bay 2.5", the primary R650 page; this page covers them in full as well, with the framing centered on what ten bays changes.
Wholesale Servers stocks the R650 as Surplus New and Refurbished. Every unit ships after a 12+ hour burn-in that exercises every memory channel, every PCIe lane, and every drive bay, and it carries our standard 180-day warranty. Volume pricing starts at 5 units. To scope a build or request a quote, call 1-800-778-1545 or use the form on this page.
When Ten Bays Is the Right Choice
The 10-Bay is the dense-SFF R650. The 25% bay-count uplift over the 8-Bay is not a marketing number; at cluster scale it changes node counts. Ten NVMe per node instead of eight means fewer nodes for a given vSAN ESA capacity tier, more Ceph OSDs per rack unit, and more room for explicit storage tiering on a single chassis (hot NVMe, warm SAS SSD, capacity drives) without compromising the layout. The compute, memory, networking, and management are identical to the 8-Bay; the decision is purely whether the workload uses the additional two bays. If it does not, the 8-Bay is the more cost-efficient build and the honest recommendation.
Storage - Ten 2.5" Bays
Ten front-accessible 2.5" hot-plug bays on the Universal Backplane, every bay accepting SAS, SATA, or PCIe Gen4 x4 NVMe natively, with no PCIe expansion card consumed for the NVMe path. Common profiles at Wholesale Servers:
- All-NVMe at ten bays. 10x 3.84 TB (38.4 TB raw), 10x 7.68 TB (76.8 TB raw), or 10x 15.36 TB (153.6 TB raw, the current ceiling). For vSAN ESA this is the highest per-node capacity available in 1U on the 15th gen platform.
- Mixed NVMe plus SAS SSD. Four NVMe for a hot tier alongside six SAS SSDs for warm or capacity tiers. The ten-bay count maps cleanly to a three-tier layout that the 8-Bay has to compromise.
- All-SAS/SATA. 10x 2.5" SAS or SATA SSD for cost-reduced builds where NVMe latency is not the constraint; 10x 7.68 TB is 76.8 TB raw, 61.44 TB usable at RAID 6.
- Ceph OSD nodes. Ten OSDs per 1U via HBA355i pass-through. At meaningful cluster sizes, ten versus eight OSDs per node shifts the node count by roughly 20% for equivalent total capacity, which flows straight into rack space, licensing, and rebalance speed.
Boot is handled by BOSS-S2: two redundant M.2 NVMe SSDs in hardware RAID 1 on a dedicated card, keeping the OS off the front bays so all ten remain available for data. Typical builds are 2x 240 GB or 2x 480 GB M.2 NVMe. An optional rear 2x 2.5" kit (NVMe-capable) is available for hot spares or dedicated log volumes; add it at quote time.
Storage Controllers
The R650 runs the PERC 11 family plus the HBA355i, and the high-bay-count builds lean harder on the choice between hardware RAID and a software-defined layer:
- PERC H755 (SAS/SATA). 12 Gbps SAS-3, 8 GB flash-backed write cache, full RAID 0/1/5/6/10/50/60. The production default for hardware-RAID SAS or SATA arrays.
- PERC H755N (NVMe). Hardware RAID across Gen4 NVMe at RAID 0/1/5/6/10, for ten-bay NVMe builds that want hardware parity rather than a software layer.
- PERC H355 and H345. Entry-tier hardware RAID, RAID 0/1/10 only. No RAID 5 or RAID 6; for parity RAID specify the H755 or H745. We confirm the controller against the RAID level at build time.
- HBA355i. SAS-3 and NVMe pass-through, no RAID. The standard attach for vSAN ESA, Ceph, ZFS, and Storage Spaces Direct, which want raw devices, and the natural fit for a ten-OSD storage node.
- S150 software RAID. Intel VROC at the chipset level, adequate for boot or light mirrors; not what we quote for a production ten-drive data array.
Processors
Up to two 3rd Generation Intel Xeon Scalable processors (Ice Lake-SP, socket LGA-4189), the full Ice Lake stack to 40 cores per socket, TDPs from 85W Silver to 270W Platinum. For a storage-dense node the compute is often sized to drive the storage rather than maxed out, so the common picks skew mid-stack:
- Xeon Silver 4316 (20C, 2.3 GHz, 150W). 40 cores and 80 threads dual-socket; a balanced default for a storage node that also runs co-located services.
- Xeon Gold 6326 (16C, 2.9 GHz, 185W). Higher per-core frequency for licensing-bound or latency-sensitive data services.
- Xeon Gold 6338 (32C, 2.0 GHz, 205W). 64 cores and 128 threads for converged nodes running heavy application compute alongside the storage role.
- Xeon Platinum 8380 (40C, 2.3 GHz, 270W). The ceiling, for nodes that genuinely use both the full storage density and maximum compute.
CPUs above 165W TDP require Dell's high-performance heatsink and fan configuration; we include the correct thermal hardware on those builds and verify it against the CPU. A single-socket build wires only half the memory channels and a narrower PCIe budget, which matters more on a storage-dense node that wants bandwidth, so populate both sockets unless the workload is genuinely light on compute.
Memory
Up to 32 DDR4 DIMM slots: 16 per CPU, 8 channels per socket, 2 DIMMs per channel. The 8-channel topology is a real bandwidth advantage for storage-and-cache-heavy workloads.
- RDIMM ceiling: 2 TB with 32x 64 GB dual-rank RDIMMs.
- LRDIMM ceiling: 4 TB with 32x 128 GB LRDIMMs, on request.
- Optane PMem 200-series: up to 8 TB combined, for persistent-memory-tier workloads.
- Common builds: 256 GB, 512 GB, 768 GB, 1 TB, 2 TB. vSAN ESA and Ceph nodes commonly run 256 GB to 512 GB depending on the caching and dedup footprint.
Speed is DDR4-3200 MT/s at 1 DIMM per channel with a 3200-capable CPU; populating all 32 slots at 2 DPC can step to 2933 MT/s by CPU SKU and DIMM rank, so for maximum bandwidth populate 1 DPC with higher-density modules. Registered ECC modules only (RDIMM, LRDIMM, or PMem); no unbuffered DIMMs.
Networking and PCIe Expansion
Up to 3 PCIe Gen4 slots, all low-profile and half-length. On a ten-bay storage node the PCIe budget is precious, because the network attach is what keeps a dense NVMe array from being throttled at the wire. Networking runs through one OCP NIC 3.0 slot on PCIe Gen4 x8, independent of the three expansion slots. The shift to OCP NIC 3.0 is the 15th gen generational change; the 13th and 14th gen Dells used the rack Network Daughter Card. Common attaches:
- 2x 25 GbE SFP28 (Mellanox ConnectX-5 or Intel E810) on OCP 3.0, the standard fabric attach.
- 2x 100 GbE QSFP28 (Mellanox ConnectX-6) in a Gen4 slot, the right attach for a ten-NVMe vSAN ESA or Ceph node so the network is not the bottleneck.
- 2x 10 GbE SFP+ (Intel X710) where the storage traffic stays modest.
GPU Support
The R650 supports up to three single-width 75W GPUs (NVIDIA T4, A2, or L4) drawing power from the slot, but a ten-bay all-NVMe build usually spends its limited PCIe and thermal budget on storage and networking rather than accelerators. Where a node needs both dense local storage and a light inference GPU, one single-width card is feasible; for multi-GPU or any double-width or full-height accelerator the 1U chassis has neither the slot height nor the thermal headroom, and the GPU-optimized 2U R750xa is the right platform.
Management - iDRAC9 Generation
The R650 ships with iDRAC9, the 15th-generation Dell controller, and builds here include iDRAC9 Enterprise by default: virtual console and media redirection, full SNMP and Redfish API access, Lifecycle Controller integration, and per-drive Gen4 NVMe health telemetry, which is genuinely useful on a ten-drive node where per-device wear and health visibility matters. iDRAC9 Datacenter is available on request. The platform carries enhanced Secured Component Verification, signed BIOS updates, a hardware Silicon Root of Trust, and TPM 2.0, with consistent OpenManage Enterprise integration across the 15th gen family.
Power and Cooling
Two redundant power supplies in 1+1. A fully populated ten-NVMe build draws meaningfully more than a SAS build, so size the PSU to the drive complement:
| PSU | Efficiency | Typical fit on the 10-Bay |
|---|---|---|
| 1100W AC or DC (-48V) | Platinum / Titanium | Gold dual-socket, 512 GB, ten SAS or mixed SSDs, 25 GbE. The common ten-bay spec; DC for telco and colocation. |
| 1400W AC | Platinum / Titanium | Ten Gen4 NVMe at sustained load plus 100 GbE; the right tier for a dense all-NVMe storage node. |
| 1800W AC (where available) | Titanium | Platinum 8380 dual-socket with ten NVMe, 100 GbE, and PMem. The ceiling build; sourced on request. |
Cooling is front-to-rear air, standard or high-performance fan kit by CPU TDP; the 1U chassis handles 270W Platinum SKUs with the high-performance configuration. No direct liquid cooling. ASHRAE A2 (10-35°C) is fully supported; A3 and A4 carry CPU and NIC deratings we verify against Dell's thermal tables, and a fully loaded ten-NVMe node sits at the warmer end of the envelope.
Physical Specs and Platform Notes
- Form factor. 1U rack, roughly 558.9 mm chassis depth, Dell regulatory model E69S. Standard 19-inch mounting.
- PCIe expansion. Up to three Gen4 slots, low-profile half-length, count by riser SKU and socket population; one independent OCP NIC 3.0 slot.
- Parts availability. Excellent. Current Dell production with full ProSupport parts coverage for drives, PSUs, risers, heatsinks, and fans.
- Accessories we recommend. The R650/R660 A15 sliding rail kit for tool-less racking, and the rear 2x 2.5" drive kit for hot spares or dedicated log volumes. A high-performance heatsink and fan kit is required above 165W and is included on those builds.
- Platform notes. CPUs are not hot-pluggable; the OCP 3.0 NIC slot does not consume a PCIe expansion slot; a fully populated ten-NVMe build is the chassis configuration most likely to hit the thermal and PCIe ceilings, so the riser and PSU choices want checking against the drive and NIC plan at quote time.
Our Assessment
Where it excels: The 10-Bay is the 15th gen 1U ceiling for converged compute-plus-NVMe-storage: vSAN ESA at maximum 1U per-node capacity (ten NVMe), Ceph nodes with co-located application compute, Storage Spaces Direct hyper-converged nodes, and dense application or database hosts with explicit hot-warm-capacity tiering across ten bays.
Where to look instead: For most R650 workloads the 8-Bay is sufficient and more cost-efficient, and we will say so. If a single socket covers the compute, the R650xs 10-Bay 2.5" delivers the same ten-bay density at the cost-optimized tier. If the workload wants more than three PCIe slots or more than ten bays, the 2U R750 is the better-provisioned platform. The 10-Bay premium over the 8-Bay is only justified when the additional two bays change the cluster design.
Bottom line: The 10-Bay earns its pick when 25% more spindles per node genuinely shifts node count, rack footprint, or tier layout. If your sizing sits between the 8-Bay and the 2U R750 16-Bay, the 10-Bay is frequently the right middle ground, and we will quote it alongside both for a direct comparison on density, PCIe budget, and total cost of ownership.
Where the R650 Fits in 2026
The R650 is current Dell production, not an end-of-life platform, so this is a positioning note. The 16th gen R660 8-Bay 2.5" (Sapphire and Emerald Rapids, DDR5, PCIe Gen5, CXL) is the step up, and it matters for a storage node specifically where PCIe Gen5 NVMe or higher network bandwidth changes the throughput ceiling; for most 15th gen deployments the refurbished R650 is the better economics. The HPE cross-vendor counterpart at this tier is the ProLiant DL360 Gen11.
Honest Limitations
- Ten Gen4 NVMe drives can saturate the 1U PCIe and network budget before the CPUs are busy; the three-slot expansion ceiling is the first constraint on a dense storage node.
- Fully populating all 32 DIMM slots at 2 DPC can step memory to 2933 MT/s.
- No direct liquid cooling, and a fully loaded ten-NVMe plus high-TDP-CPU build sits at the warm end of the 1U thermal envelope under sustained load.
- DDR4 and PCIe Gen4 platform; Gen5 NVMe and DDR5 bandwidth arrive only at the 16th gen step.
- If the workload fits comfortably in eight bays, the 10-Bay premium buys density the deployment does not use.
Workload Fit
| R650 10-Bay 2.5" is appropriate for | Consider alternatives for |
|---|---|
| vSAN ESA at maximum 1U per-node capacity (ten NVMe) | Eight bays sufficient (R650 8-Bay, lower cost) |
| Ceph OSD nodes with co-located application compute | Single socket sufficient (R650xs 10-Bay) |
| Storage Spaces Direct hyper-converged nodes | More than three PCIe slots or ten bays (R750) |
| Dense hosts with hot-warm-capacity tiering across ten bays | Bulk LFF capacity instead of SFF (R650 4-Bay 3.5") |
| Cluster designs where 25% more spindles per node changes economics | Gen5 NVMe or DDR5 changes the outcome (R660 step-up) |
Where to Look Instead
- Standard SFF density at lower cost. The R650 8-Bay 2.5" is the primary R650 configuration and the right call whenever eight bays cover the workload.
- Bulk LFF capacity in 1U. The R650 4-Bay 3.5" trades NVMe for large 3.5" drives in branch, backup, and edge roles.
- More slots and more storage in 2U. The R750 16-Bay 2.5" is the same Ice Lake platform with up to sixteen bays and an eight-slot PCIe budget.
Ready to Configure?
Tell us your workload, single-socket or dual-socket, your memory target (and whether Optane PMem is in scope), your CPU SKU preference or a workload description, your storage profile (all-NVMe, mixed-tier, SAS/SATA, Ceph, vSAN ESA, or S2D), your networking attach (10, 25, or 100 GbE), any GPU requirement, and quantity. We respond within 24 hours, and volume pricing applies at 5 units and above. Every build ships after a 12+ hour burn-in covering every PCIe slot, every memory channel, and every drive bay, backed by the 180-day warranty with 1-Year, 2-Year, and 3-Year Premium options available. Call 1-800-778-1545 or use the quote form on this page.
Save Your Design
Click the Add to Quote button at the bottom of your screen to save your design as a draft order for future reference and to check for discounts, lead time, and availability. Most servers ship within 1-3 days.
