Juniper QFX Switch Price Dubai
Choose the QFX platform around port speed, fabric role, growth, optics, resilience and operating model—not around a headline price alone. FourTeck supplies and helps scope Juniper QFX switching for Dubai and UAE business environments, from 10/25/100GbE leaf requirements to high-density 400GbE spine and modular designs.
Direct answer: what are Juniper QFX switches and what determines the Dubai price?
Juniper QFX is a family of Ethernet switches used across data center leaf-spine fabrics, high-speed aggregation, data center interconnect, selected campus distribution/core roles and very high-capacity network designs.
Typical use includes server access, spine connectivity, EVPN-VXLAN fabrics, IP storage networks, cloud-scale switching, 100/400GbE aggregation and environments that need low-latency Layer 2/Layer 3 forwarding.
Enterprises, service providers, cloud operators, data center teams, universities and organisations building high-density networks should consider QFX when ordinary access switching does not provide the required fabric scale, speeds or topology.
Confirm the exact model or required role, downlink and uplink speeds, port count, media type, breakout needs, airflow/power orientation, redundancy, software functions and lifecycle requirements before comparing prices.
FourTeck can help map the workload and topology to a suitable QFX family, identify optics and cabling dependencies, establish required software/support scope and build a more accurate Dubai quotation.
Why there is no single Juniper QFX switch price
A search for a Juniper QFX switch price in Dubai can sound like a request for one number, but QFX is a broad switching portfolio rather than a single appliance. A compact fixed 1U model with 10/25GbE server-facing ports is a very different purchase from a 400GbE spine platform or a modular chassis populated with line cards. Even when two quotations contain the same switch base model, the final project value can differ because one design may need short-reach optics, another may need long-reach optics, another may use DAC or AOC cabling, and another may require additional software, support or deployment services.
For this reason, a meaningful price comparison starts by normalising the bill of materials. Check whether the quoted amount includes power supplies, fans, rack accessories, transceivers, cables, software subscriptions, technical support and VAT. Also check whether the configuration uses the required airflow direction. In a data center with strict hot-aisle/cold-aisle discipline, the wrong fan or power airflow orientation can make an otherwise correct switch unsuitable for the rack position.
Port speed, port density, switching capacity, buffer characteristics, form factor and fabric role are primary cost drivers.
SFP/SFP28/QSFP variants, breakout assemblies, DACs, AOCs and fibre reach can materially change the project total.
Automation, management, advanced capabilities and support entitlements should be matched to the intended operating model.
Staging, configuration, migration, documentation, maintenance windows and onsite assistance may be separate from hardware.
Juniper QFX family guide for Dubai buyers
The useful way to compare QFX platforms is by role and interface requirement. The following guide uses current Juniper family positioning as a starting point; exact model availability, software release support, compatible optics and orderable part numbers should be checked for the specific project.
| QFX family | Representative interfaces | Typical position | Buyer decision |
|---|---|---|---|
| QFX5100 | 1/10GbE and 40GbE, with model-dependent uplinks | Established top-of-rack / leaf designs | Check lifecycle, exact port mix and whether a newer 25/100GbE-oriented platform offers a better growth path. |
| QFX5110 | 10/40/100GbE options depending on model | Leaf and flexible fabric building block | Useful when matching an existing architecture; compare interface density and roadmap with QFX5120. |
| QFX5120 | 1/10/25GbE server-facing options and 40/100GbE uplinks; 40/100GbE dense model also available | Leaf/spine, data center edge, interconnect, campus distribution/core | Strong candidate when 25GbE access and 100GbE uplinks are central. Confirm copper versus fibre model and any MACsec requirement. |
| QFX5130 | 100GbE and 400GbE high-density configurations | High-speed spine/leaf and selected campus core/distribution | Evaluate when moving into 400GbE fabrics. Confirm port breakout strategy, MACsec requirement and the exact 32CD/48C/48CM variant. |
| QFX5200 | 10/25GbE leaf ports and 40/100GbE uplinks, or dense 40/100GbE | Large standards-based leaf/spine fabrics | Check whether the chosen model’s buffer and feature profile match storage, east-west traffic and oversubscription targets. |
| QFX5210 | 64 x 40/100GbE on representative models | High-capacity leaf/spine and metro use | Suitable when 100GbE density is the key requirement; validate breakout, optics and current software compatibility. |
| QFX5220 | Up to 400GbE; 32-port 400GbE and 128-port 100GbE class options | Large-scale data center spine | Compare with QFX5130, QFX5230 and QFX5700 according to scale, feature needs, fabric design and lifecycle. |
| QFX5230 | 64 x 400GbE QSFP56-DD with extensive breakout possibilities | High-density spine/super-spine, AI/ML and IP storage-oriented designs | Consider when 51.2 Tbps-class bidirectional capacity and dense 400GbE are justified by the workload rather than purchased speculatively. |
| QFX5700 | 32 x 400GbE with breakout to multiple lower speeds | High-capacity spine, EVPN-VXLAN, DCI border and campus fabric roles | Useful for dense 400GbE designs where flexible breakout and high fabric capacity are required. |
| QFX10000 | Modular chassis with multiple line-card choices and very high aggregate capacity | Large spine, core, routing and long-term modular expansion | Price depends heavily on chassis, line cards, fabric modules, redundancy and port population; compare full system architecture, not chassis-only cost. |
QFX5120: a practical reference point for many enterprise designs
For organisations comparing Juniper QFX pricing, the QFX5120 family is a useful reference because it covers several common enterprise speed transitions. The QFX5120-48T provides 48 copper 1/10GbE RJ-45 ports with six 40/100GbE uplink ports. The QFX5120-48Y provides 48 SFP/SFP+ interfaces supporting 1/10/25GbE plus eight 40/100GbE uplinks. The QFX5120-32C concentrates on 32 x 40/100GbE ports with additional 10GbE connectivity. This range means two buyers asking for “a QFX5120 price” may actually need very different hardware.
The 48T can suit environments that still require higher-density 10GBASE-T copper connectivity, while the 48Y is more natural where SFP-based 10/25GbE server attachment and 100GbE uplinks are planned. A 32C-style configuration fits a different role again, with dense 40/100GbE connectivity. The QFX5120 family is also positioned for advanced EVPN-VXLAN use and low-latency Layer 2/Layer 3 operation. If encryption on physical interfaces matters, the exact submodel is important: Juniper identifies the QFX5120-48YM as the MACsec-capable option within that line.
This is a good example of why model suffixes should appear on the purchase order and quotation. “QFX5120” is not enough to validate port media, uplink density or security capability. The final order should carry the exact hardware identifier and the matching power/fan orientation, optics and support scope.
400GbE QFX selection: QFX5130, QFX5220, QFX5230 and QFX5700
Moving to 400GbE does not mean every 400GbE QFX switch is interchangeable. The QFX5130 family provides high-density fixed 1U platforms with 100GbE and 400GbE choices. Juniper lists the QFX5130-32CD and QFX5130E-32CD with 32 x 400GbE-class ports plus two 10GbE interfaces, while the 48C and 48CM variants combine high-density 100GbE with 400GbE uplinks. The 48CM is the variant associated with MACsec, so a requirement for encrypted links can change both the model and the budget.
The QFX5220 family is positioned for very large standards-based fabrics and provides configurations including 32 x 400GbE or very dense 100GbE. The QFX5230 raises density further: Juniper positions it for data center spine and super-spine roles, including AI data center networking, with 64 x 400GbE QSFP56-DD ports and up to 51.2 Tbps bidirectional throughput. Its breakout possibilities can support very large numbers of 200, 100, 25 or 10GbE logical connections, but a breakout-heavy design must be planned around supported cables, port modes and operational manageability.
The QFX5700 is another 400GbE-class option positioned for spine, EVPN-VXLAN fabric, DCI border and selected campus fabric roles. Juniper describes 32 x 400GbE QSFP56-DD physical port density with breakout flexibility to 200, 100, 50, 40, 25 and 10GbE speeds. When comparing these platforms, do not use Tbps alone. Consider feature requirements, expected port population, cabling layout, buffer behaviour, software support, automation tooling, rack power, cooling, lifecycle and how the switch fits the rest of the fabric.
The technical inputs that make a QFX quotation accurate
1. Fabric role
State whether the switch is server leaf, spine, super-spine, border leaf, data center edge, campus core/distribution or DCI. Role narrows the useful model range faster than a generic speed request.
2. Port map
List the number of 1, 10, 25, 40, 100, 200 and 400GbE connections required now and after expected growth. Include management and inter-switch links rather than counting only servers.
3. Media and reach
Identify copper, multimode fibre, single-mode fibre, DAC or AOC. Fibre reach and connector type determine the appropriate optics and can materially change the bill of materials.
4. Oversubscription target
A leaf with many 25GbE downlinks may need multiple 100GbE or 400GbE uplinks depending on workload. East-west traffic, storage and virtualisation patterns can justify different ratios.
5. Resilience
Define dual-homing, redundant leafs/spines, power-feed diversity, MLAG/EVPN multihoming design and maintenance objectives. Buying one oversized switch does not replace architectural redundancy.
6. Security and encryption
If MACsec or another security capability is required, specify which links need protection and at what speed. Similar-looking variants can differ in hardware support and throughput behaviour.
7. Automation and management
State whether Junos-only operations are planned or whether intent-based automation, fabric lifecycle tooling and centralised assurance are required. Management architecture can introduce software and subscription dependencies.
8. Support term and lifecycle
For production data centers, warranty status alone is rarely enough. Define target support coverage, replacement expectations, software entitlement and the expected service life of the platform.
Optics, DACs, AOCs and breakout cables: the hidden part of switch pricing
A QFX hardware quotation without the interconnect plan is incomplete. Server-facing 10/25GbE links may use DAC cables for short same-rack connections, optical modules for structured fibre, or AOCs where an active optical assembly is more practical. Uplinks at 40/100/200/400GbE introduce additional module and breakout choices. The correct selection depends on distance, fibre type, connector standard, patch-panel design, supported transceiver matrix and the switch port mode.
Breakout can be commercially attractive because one high-speed physical port may support multiple lower-speed connections on supported platforms. It also changes rack cabling density and operational troubleshooting. A design that looks efficient on a spreadsheet can become difficult to maintain if cable identification, patching and port allocation are not documented. For a new 400GbE spine, the cabling plan should therefore be built alongside the switch port map rather than after hardware has been ordered.
Compatibility is particularly important with high-speed optics. Buyers should avoid assuming that any module with the right connector and nominal speed will operate correctly. The final BOM should identify the exact supported optic or cable for the intended Junos release and platform. Where third-party optics are being considered, operational policy, support implications and interoperability testing should be assessed before procurement.
Junos OS, EVPN-VXLAN and automation considerations
QFX switches use Junos OS, giving network teams a consistent operational framework with Juniper routing and switching platforms. In modern data centers, the hardware is often only one part of the design. EVPN-VXLAN can provide scalable Layer 2 and Layer 3 connectivity across an IP underlay, while automation reduces the risks associated with hand-built repetitive configuration. The value is not merely feature count; it is the ability to deploy and operate a repeatable fabric with predictable policy and observability.
Juniper also positions Apstra software for intent-based data center networking and network lifecycle automation. Whether it belongs in a specific project depends on scale, operational maturity and the desired management model. A small isolated QFX deployment may be run directly by an experienced Junos team, while a larger multi-rack or multivendor fabric may justify stronger design validation, automated deployment and closed-loop assurance. Software edition, subscription term and support requirements should be confirmed during design because they can affect total cost of ownership.
The software release itself is another dependency. A hardware model may support capabilities that are available only in particular releases or that have platform-specific caveats. Before a migration, the implementation team should validate the target Junos release, feature support, optics compatibility and upgrade path. This is especially important when the QFX platform must integrate with existing switches, routing protocols, orchestration platforms or monitoring systems.
Sizing is about traffic patterns, not only port count
Two data centers with the same number of servers can need different switching designs. A virtualisation cluster with high east-west traffic, distributed storage, backup windows or AI/ML workloads can place far more pressure on leaf-spine bandwidth than a set of lightly used application servers. Port count tells you how many endpoints connect; it does not tell you the peak traffic profile, microburst behaviour, acceptable oversubscription ratio or resilience requirement.
For a 25GbE server fabric, calculate both the theoretical aggregate downlink capacity and realistic concurrent traffic. Then compare that demand with leaf uplink capacity and the spine design. If growth is expected, reserve ports and bandwidth deliberately. Overbuying every switch “for future proofing” can waste budget, while a design with no spare optical lanes or fabric capacity can force an early redesign. The right balance is a documented growth assumption with a clear expansion path.
Storage traffic deserves particular attention. Latency sensitivity, burst behaviour and congestion management requirements can differ from ordinary application traffic. If the QFX network will carry IP storage, database replication or high-throughput backup traffic, provide those flows during sizing. For AI clusters, GPU communication patterns, 100/200/400GbE requirements and the desired fabric architecture can justify platforms such as the high-density QFX5230, but the workload should establish that need.
Common Dubai and UAE deployment scenarios
Private cloud and virtualisation
A business refreshing a private cloud may use 25GbE leaf connectivity with 100GbE uplinks, making QFX5120-class designs a logical comparison point. The final model depends on copper versus fibre interfaces, port count, uplink ratio, resilience and growth.
Enterprise data center fabric
EVPN-VXLAN leaf-spine designs can use fixed QFX platforms at leaf and spine. Buyers should define rack count, endpoints per rack, fabric oversubscription, border services, automation and interconnect requirements before selecting hardware.
High-density 400GbE spine
QFX5130, QFX5220, QFX5230 and QFX5700 comparisons become relevant when 400GbE is justified. Port density, breakout, buffer profile, encryption, scale, power and platform lifecycle determine the strongest fit.
Data center interconnect
For DCI, link distance, bandwidth, fibre availability, encryption, routing design and optical transport architecture matter. The QFX choice should be coordinated with the carrier or dark-fibre design rather than selected as an isolated switch.
Campus core or distribution
Some QFX families are positioned for campus distribution/core use where higher-speed uplinks and fabric capabilities are required. For ordinary access switching, Juniper EX models may be a better architectural and commercial fit.
AI and high-performance networking
The QFX5230 is positioned for high-density AI data center networking and high-speed spine/super-spine roles. GPU cluster design should account for traffic pattern, topology, congestion behaviour, optics and end-to-end latency rather than switch throughput alone.
When a QFX switch may not be the right choice
QFX is designed around high-performance switching and fabric use cases, but that does not mean every network needs it. A branch office requiring straightforward user access, PoE for phones and wireless access points, and modest uplink capacity may be better served by an enterprise access-switch family such as Juniper EX. Using a data center-oriented QFX platform for a simple edge requirement can add cost and operational complexity without improving business outcomes.
At the other extreme, an organisation that genuinely needs a very large modular core should compare fixed high-density QFX switches with QFX10000 modular systems. Modular platforms can provide expansion and line-card flexibility, but they introduce chassis planning, power, cooling, slot and redundancy decisions. The cheapest entry configuration may not represent the final architecture, so compare a fully populated or realistically staged five-year design rather than initial chassis cost.
Older QFX families can also appear attractive in the secondary or discounted market. Before purchasing, verify lifecycle status, software support, entitlement, hardware provenance, optics compatibility and replacement strategy. A lower acquisition cost is not necessarily economical if the platform cannot support the target software release or if replacement coverage is critical to production service levels.
A practical implementation journey
Discover
Document current topology, workloads, port usage, traffic peaks, applications, storage and operational constraints.
Design
Choose leaf/spine roles, port speeds, oversubscription, redundancy, EVPN-VXLAN approach and management architecture.
Build the BOM
Specify exact QFX models, power/fans, optics, DAC/AOC cables, licences, support and rack accessories.
Stage & validate
Load the target software, configure management, validate optics, protocols, automation and rollback procedures before the change window.
Migrate
Move services in controlled steps, monitor reachability and performance, and keep tested rollback options for critical changes.
Frequently asked questions about Juniper QFX switch pricing in Dubai
How much does a Juniper QFX switch cost in Dubai?
There is no responsible single price for the whole family. Cost changes with the exact model, new versus existing lifecycle position, port density, optics, cabling, software, support, quantity and installation scope. A quotation should therefore identify the exact part numbers and inclusions. If you provide the model—such as QFX5120-48Y, QFX5130-32CD or QFX5230—and quantity, pricing can be much more specific.
Which QFX switch is suitable for 25GbE servers?
A platform such as the QFX5120-48Y is a logical reference because it provides 1/10/25GbE SFP-family server-facing interfaces with 40/100GbE uplinks. The actual choice depends on server count, optical or DAC connectivity, uplink ratio, fabric design, redundancy and whether a newer platform offers advantages for the project lifecycle.
Which QFX models support 400GbE?
Current Juniper QFX portfolio pages include 400GbE-capable families such as QFX5130, QFX5220, QFX5230 and QFX5700. They differ in physical density, throughput, platform architecture, supported lower-speed breakout, intended roles and features. Choose according to the whole fabric requirement rather than 400GbE capability alone.
Does the switch price include transceivers?
Not necessarily. Hardware and optics are often treated as separate line items, especially when the required reach and media are unknown. Ask for a BOM that states exactly which transceivers, DACs, AOCs and breakout cables are included. This avoids comparing a bare-switch quote with a complete deployment quote.
Can QFX be used for EVPN-VXLAN?
Yes, multiple QFX families are positioned for EVPN-VXLAN and IP fabric designs. The implementation still depends on the selected model, Junos software release, topology and feature requirements. Validate the precise design and release support before standardising the hardware list.
Should I choose QFX5120 or QFX5130?
They address different speed classes. QFX5120 is commonly relevant to 1/10/25GbE access with 40/100GbE uplinks and 100GbE-focused switching, while QFX5130 extends into dense 100/400GbE. If you do not have a 400GbE requirement or a clear growth path to it, paying for higher-speed capability may not be necessary.
What is special about QFX5230?
Juniper positions the QFX5230 for very high-density 400GbE spine and super-spine applications, including AI data center networking and IP storage. A representative configuration provides 64 x 400GbE and up to 51.2 Tbps bidirectional throughput. That capacity makes sense for demanding fabrics, but it should be justified by topology and workload requirements.
Do I need Juniper Apstra with QFX?
Not every QFX deployment requires the same management model. Apstra is intended for intent-based data center networking and lifecycle automation, which can be valuable for larger fabrics. A smaller environment with strong Junos operational skills may have different requirements. Evaluate software according to scale, automation goals, assurance needs and team workflow.
Can QFX replace a campus access switch?
QFX models can serve selected campus distribution/core roles, but ordinary user access with PoE requirements may be better matched to Juniper EX switching. Select the family according to access functions, endpoint types, PoE, uplink capacity and fabric architecture rather than brand consistency alone.
What information should I send for a fast quotation?
Send the exact model if known, quantity, required port speeds, optics or cable distances, uplink design, software/automation requirement, support term, delivery location and whether installation or migration is required. If the model is not known, send the current topology and desired capacity so the platform can be shortlisted first.
Decision recap before you buy
Match QFX family and suffix to the role, port media, speed and required hardware functions.
Size uplinks and fabric capacity from traffic patterns and growth, not endpoint count alone.
Validate optics, cables, software release, routing/fabric features and adjacent systems.
Compare equivalent BOMs including power, fans, optics, software, support and services.
What FourTeck needs for an accurate Juniper QFX quotation
You do not need to know every technical detail before contacting us. The most useful starting inputs are below; where information is missing, the requirement can be refined during consultation.
Get the right Juniper QFX configuration priced for your Dubai project
Share your required model or network role, port speeds, quantity and optics needs. FourTeck can help turn that requirement into a model-specific bill of materials and commercial quotation, while highlighting compatibility, deployment and growth decisions that affect the real project cost.